mhurhangee/patent-ind-claim-en huggingface dataset:
An optical measurement system , comprising: an optical sensor assembly including an objective lens with an optical axis and a lens housing ; a stage for placement of an object to be measured located beneath the optical sensor assembly, the stage and the optical sensor assembly being movable with respect to one another along each of the x, y and z axes; and a deployment mechanism pivotally connected relative to the optical sensor assembly and configured to pivotally move a secondary measurement aid relative to the optical sensor assembly along an arcuate path between a deployed position and a pivotally retracted position, a pivot axis of the deployment mechanism being generally horizontal and no lower than the objective lens ; wherein when in the deployed position, the secondary measurement aid is aligned along the optical axis , when in the retracted position, the secondary measurement aid is no lower than a lowest portion of the lens housing along the z axis; and wherein the stage is moveable along the x and y axes, such that when in the retracted position, the secondary measurement aid does not inhibit relative movement of the optical sensor assembly with respect to the object to be measured along each of the x, y, z axes. an optical sensor assembly including an objective lens with an optical axis and a lens housing ; a stage for placement of an object to be measured located beneath the optical sensor assembly, the stage and the optical sensor assembly being movable with respect to one another along each of the x, y and z axes; and a deployment mechanism pivotally connected relative to the optical sensor assembly and configured to pivotally move a secondary measurement aid relative to the optical sensor assembly along an arcuate path between a deployed position and a pivotally retracted position, a pivot axis of the deployment mechanism being generally horizontal and no lower than the objective lens ; wherein when in the deployed position, the secondary measurement aid is aligned along the optical axis , when in the retracted position, the secondary measurement aid is no lower than a lowest portion of the lens housing along the z axis; and wherein the stage is moveable along the x and y axes, such that when in the retracted position, the secondary measurement aid does not inhibit relative movement of the optical sensor assembly with respect to the object to be measured along each of the x, y, z axes.
A container seal for sealing a container entrance by thermal bonding and partially opening the container entrance when an opening tab on a top thereof is pulled, the container seal comprising: a top layer where the opening tab is formed; and a bottom layer including an aluminium foil layer adapted to be thermally bonded to a container along a thermal bonding band , wherein the top layer is thermally bonded to the bottom layer and the top layer has: a plurality of guide bands which define respective outer boundaries of partial openings; a plurality of opening tabs each connected at a respective separating guide line to a respective one of the guide bands ; and wherein portions of the top layer are cut so that the guide bands are separated from the thermal bonding band along the inner edge of the thermal bonding band by an opening guide line and so that each guide band is cut across by the separating guide line . a top layer where the opening tab is formed; and a bottom layer including an aluminium foil layer adapted to be thermally bonded to a container along a thermal bonding band , wherein the top layer is thermally bonded to the bottom layer and the top layer has: a plurality of guide bands which define respective outer boundaries of partial openings; a plurality of opening tabs each connected at a respective separating guide line to a respective one of the guide bands ; and wherein portions of the top layer are cut so that the guide bands are separated from the thermal bonding band along the inner edge of the thermal bonding band by an opening guide line and so that each guide band is cut across by the separating guide line . a plurality of guide bands which define respective outer boundaries of partial openings; a plurality of opening tabs each connected at a respective separating guide line to a respective one of the guide bands ; and wherein portions of the top layer are cut so that the guide bands are separated from the thermal bonding band along the inner edge of the thermal bonding band by an opening guide line and so that each guide band is cut across by the separating guide line .
Apparatus for treating a subject with a diseased mitral valve, the apparatus comprising: a docking element configured to be implanted within a left atrium of the subject, in its entirety, such that no portion of the docking element extends through the subject's mitral valve, the docking element being configured to become anchored to tissue of the left atrium at least partially via ingrowth of the tissue of the left atrium to the docking element , the docking element comprising: a ring configured to be implanted in the vicinity of a mitral valve annulus of the subject; a frame extending upwardly from the ring , a height of the frame being at least 15 mm, the frame being configured to radially expand against an inner wall of the subject's left atrium ; and a prosthetic mitral valve apparatus configured: subsequent to the ingrowth of the tissue of the left atrium to the docking element having occurred, to be placed at least partially inside the docking element , and to become anchored to the docking element , at least partially by radially expanding against the ring . a docking element configured to be implanted within a left atrium of the subject, in its entirety, such that no portion of the docking element extends through the subject's mitral valve, the docking element being configured to become anchored to tissue of the left atrium at least partially via ingrowth of the tissue of the left atrium to the docking element , the docking element comprising: a ring configured to be implanted in the vicinity of a mitral valve annulus of the subject; a frame extending upwardly from the ring , a height of the frame being at least 15 mm, the frame being configured to radially expand against an inner wall of the subject's left atrium ; and a ring configured to be implanted in the vicinity of a mitral valve annulus of the subject; a frame extending upwardly from the ring , a height of the frame being at least 15 mm, the frame being configured to radially expand against an inner wall of the subject's left atrium ; and a prosthetic mitral valve apparatus configured: subsequent to the ingrowth of the tissue of the left atrium to the docking element having occurred, to be placed at least partially inside the docking element , and to become anchored to the docking element , at least partially by radially expanding against the ring . subsequent to the ingrowth of the tissue of the left atrium to the docking element having occurred, to be placed at least partially inside the docking element , and to become anchored to the docking element , at least partially by radially expanding against the ring .
Electronic device selected from capacitors and transistors containing at least one dielectric material which comprises an oxacycloolefinic polymer, which comprises a polymer chain of the formula III wherein n ranges from 3 to 100 000, each of R 2 to R 5 is selected from hydrogen and C 1 -C 4 alkyl, and R is hydrogen, C 1 -C 25 alkyl, C 1 -C 25 haloalkyl, phenyl, phenyl-C 1 -C 4 alkyl, cyclopentyl, cyclohexyl, wherein phenyl moiety or cyclopentyl or cyclohexyl moiety itself is unsubstituted or substituted by C 1 -C 4 alkyl, C 1 -C 4 alkoxy, OH, halogen; and device comprising such capacitor and/or transistor. n ranges from 3 to 100 000, each of R 2 to R 5 is selected from hydrogen and C 1 -C 4 alkyl, and R is hydrogen, C 1 -C 25 alkyl, C 1 -C 25 haloalkyl, phenyl, phenyl-C 1 -C 4 alkyl, cyclopentyl, cyclohexyl, wherein phenyl moiety or cyclopentyl or cyclohexyl moiety itself is unsubstituted or substituted by C 1 -C 4 alkyl, C 1 -C 4 alkoxy, OH, halogen; and device comprising such capacitor and/or transistor.
Modified oligonucleotide of the general formula (I): wherein: • Oligo represents an antisense oligonucleotide sequence which may be oriented 3'-5' or 5'-3', single stranded, DNA, RNA, and/or comprise modified nucleotides; • X represents a divalent linker moiety selected from ether -O-, thio -S-, amino -NH-, and methylene -CH 2 - ; • R 1 and R 2 may be identical or different and represent: (i) a hydrogen atom, (ii) a halogen, in particular fluorine atom, (iii) a hydroxyl group, (iv) an alkyl group comprising from 1 to 12 carbon atoms ; • M 1 , M 2 and M 3 may be identical or different and represent: - a saturated or unsaturated, linear or branched hydrocarbon chain comprising from 12 to 30 carbon atoms, which may be substituted at the terminal carbon atom by an aliphatic or aromatic, notably benzylic or naphtylic ester group; - an acyl radical with 12 to 30 carbon atoms, or - an acylglycerol, sphingosine or ceramide group, for use as a medicament. • Oligo represents an antisense oligonucleotide sequence which may be oriented 3'-5' or 5'-3', single stranded, DNA, RNA, and/or comprise modified nucleotides; • X represents a divalent linker moiety selected from ether -O-, thio -S-, amino -NH-, and methylene -CH 2 - ; • R 1 and R 2 may be identical or different and represent: (i) a hydrogen atom, (ii) a halogen, in particular fluorine atom, (iii) a hydroxyl group, (iv) an alkyl group comprising from 1 to 12 carbon atoms ; (i) a hydrogen atom, (ii) a halogen, in particular fluorine atom, (iii) a hydroxyl group, (iv) an alkyl group comprising from 1 to 12 carbon atoms ; • M 1 , M 2 and M 3 may be identical or different and represent: - a saturated or unsaturated, linear or branched hydrocarbon chain comprising from 12 to 30 carbon atoms, which may be substituted at the terminal carbon atom by an aliphatic or aromatic, notably benzylic or naphtylic ester group; - an acyl radical with 12 to 30 carbon atoms, or - an acylglycerol, sphingosine or ceramide group, for use as a medicament. - a saturated or unsaturated, linear or branched hydrocarbon chain comprising from 12 to 30 carbon atoms, which may be substituted at the terminal carbon atom by an aliphatic or aromatic, notably benzylic or naphtylic ester group; - an acyl radical with 12 to 30 carbon atoms, or - an acylglycerol, sphingosine or ceramide group,
A dryer (18; 60; 90; 170; 190; 210) for flat materials, in particular panels, films or sheets, comprising a porous, gas-permeable metal plate (20; 92; 176; 200; 212) for arranging at a distance from the flat material which is to be dried, wherein means are provided for delivering a gaseous fluid through the metal plate (20; 92; 176; 200; 212), wherein the metal plate (20; 92; 176; 200; 212) consists of a metal foam, wherein the means for delivering a gaseous fluid have at least one flow space (22; 98; 100; 178; 202; 218) which is bounded on one side by a surface of the metal plate (20; 92; 176; 200; 212), wherein said surface is directed away from the flat material which is to be dried, wherein the flow space (22; 98; 100; 178; 202; 218) has at least one entry opening and at least one exit opening for delivery gas, characterized in that the means for delivering a gaseous fluid have intake means for taking in gas from a region between the metal plate (20; 92; 176; 200; 212) and the flat material which is to be dried, wherein the flow space (22; 98; 100; 178; 202; 218) is designed to guide the delivery gas past that surface of the metal plate (20; 92; 176; 200; 212) which is located in the flow space (22; 98; 100; 178; 202; 218), in order to generate an intake action through the metal plate (20; 92; 176; 200; 212).
An electronic host device comprising: a memory to store a user profile comprising first identifying information of a first participant in a conference call; a receiver to receive second identifying information of the first participant from a transmitting device associated with the first participant , wherein the first identifying information and the second identifying information form an identifier for the first participant ; an audio encoder to receive an audio signal from an array of directional microphones arranged in a local conference call location capturing audio from the first participant wherein the array of directional microphones is capable of locating a source of the audio signal ; a processor to: authenticate the first participant in the conference call upon matching the first identifying information with the second identifying information; in response to determining which transmitting device is nearest in proximity to the source of the audio signal relative to other transmitting devices, identify the first participant as a source of the audio signal ; and combine the identifier for the first participant with the audio signal generated by the first participant ; a router to forward the combined identifier and audio signal of the first participant to a receiving device of a second participant in the conference call. a memory to store a user profile comprising first identifying information of a first participant in a conference call; a receiver to receive second identifying information of the first participant from a transmitting device associated with the first participant , wherein the first identifying information and the second identifying information form an identifier for the first participant ; an audio encoder to receive an audio signal from an array of directional microphones arranged in a local conference call location capturing audio from the first participant wherein the array of directional microphones is capable of locating a source of the audio signal ; a processor to: authenticate the first participant in the conference call upon matching the first identifying information with the second identifying information; in response to determining which transmitting device is nearest in proximity to the source of the audio signal relative to other transmitting devices, identify the first participant as a source of the audio signal ; and combine the identifier for the first participant with the audio signal generated by the first participant ; authenticate the first participant in the conference call upon matching the first identifying information with the second identifying information; in response to determining which transmitting device is nearest in proximity to the source of the audio signal relative to other transmitting devices, identify the first participant as a source of the audio signal ; and combine the identifier for the first participant with the audio signal generated by the first participant ; a router to forward the combined identifier and audio signal of the first participant to a receiving device of a second participant in the conference call.
A method of operating a Fourier Transform (FT) mass analyzer having a plurality of selectable resolving power settings, the method comprising: storing an optimized voltage value in association with each one of the plurality of selectable resolving power settings, wherein the optimized voltage values for at least two of the selectable resolving power settings differ from one another and wherein each optimized voltage value maximizes the peak coalescence threshold for the associated selectable resolving power setting; selecting one of the plurality of selectable resolving power settings; in dependence upon selecting the one of the plurality of selectable resolving power settings, retrieving the optimized voltage value that is stored in association therewith; controlling at least one voltage setting of the FT mass analyzer based on the retrieved optimized voltage value; and performing an analytical scan, at the selected one of the plurality of selectable resolving power settings, for a population of ions within the FT mass analyzer. storing an optimized voltage value in association with each one of the plurality of selectable resolving power settings, wherein the optimized voltage values for at least two of the selectable resolving power settings differ from one another and wherein each optimized voltage value maximizes the peak coalescence threshold for the associated selectable resolving power setting; selecting one of the plurality of selectable resolving power settings; in dependence upon selecting the one of the plurality of selectable resolving power settings, retrieving the optimized voltage value that is stored in association therewith; controlling at least one voltage setting of the FT mass analyzer based on the retrieved optimized voltage value; and performing an analytical scan, at the selected one of the plurality of selectable resolving power settings, for a population of ions within the FT mass analyzer.
A membrane bonding structure for bonding membranes for formation of a sealing wall between a first surface and a second surface of a storage tank for storing liquefied gas, the membrane bonding structure comprising: a planar portion panel disposed on each of the first surface and the second surface for thermal insulation of the storage tank; a bonding panel disposed on a boundary between the first surface and the second surface together with the planar portion panel; a first membrane attached to the planar portion panel of the first surface and the bonding panel for sealing of the storage tank; and a second membrane attached to the planar portion panel of the second surface and the bonding panel for sealing of the storage tank wherein the first membrane and the second membrane are attached to the bonding panel so as not to be directly connected to each other, wherein the bonding panel comprises a pair of plywood sheets , a heat insulator interposed between the pair of plywood sheets, wherein the pair of plywood sheets is attached to both surfaces of the heat insulator by a bonding agent, respectively, characterized in that the bonding panel further comprises a thermal protector stacked on one of the pair of plywood sheets, in that the bonding panel further comprises an Invar sheet stacked on the thermal protector, and in that the thermal protector is secured to the one plywood sheet by a staple, and the Invar sheet is secured to the thermal protector by a fastening screw coupled to the one plywood sheet through the thermal protector. a planar portion panel disposed on each of the first surface and the second surface for thermal insulation of the storage tank; a bonding panel disposed on a boundary between the first surface and the second surface together with the planar portion panel; a first membrane attached to the planar portion panel of the first surface and the bonding panel for sealing of the storage tank; and a second membrane attached to the planar portion panel of the second surface and the bonding panel for sealing of the storage tank wherein the first membrane and the second membrane are attached to the bonding panel so as not to be directly connected to each other, wherein the bonding panel comprises a pair of plywood sheets , a heat insulator interposed between the pair of plywood sheets, wherein the pair of plywood sheets is attached to both surfaces of the heat insulator by a bonding agent, respectively, characterized in that the bonding panel further comprises a thermal protector stacked on one of the pair of plywood sheets, in that the bonding panel further comprises an Invar sheet stacked on the thermal protector, and in that the thermal protector is secured to the one plywood sheet by a staple, and the Invar sheet is secured to the thermal protector by a fastening screw coupled to the one plywood sheet through the thermal protector.
A charging management circuit for a terminal , said charging management circuit configured to receive an input current from an external power supply device , said charging management circuit comprising: a first output end , configured to perform constant current charging on a cell of the terminal through a charging channel between the first output end and the cell ; a second output end , configured to supply power to a load of the terminal during the constant current charging through a power supply channel between the second output end and the load such that the load of the terminal does not take electricity from the current entering the cell but takes electricity from the external power supply device through the second output end of the charging management circuit ; and a control circuit , configured to stop the constant current charging when a voltage across both ends of the cell reaches a constant current charging cut-off voltage of the constant current charging, wherein the constant current charging cut-off voltage is greater than a rated voltage of the cell, and is configured such that a true voltage of the cell is not overvoltage in the constant current charging, wherein the voltage across both ends of the cell includes the true voltage of the cell and a floating voltage, wherein the true voltage of the cell is the stable voltage between positive and negative electrodes of the cell and the floating voltage is caused by internal resistance of the cell . a first output end , configured to perform constant current charging on a cell of the terminal through a charging channel between the first output end and the cell ; a second output end , configured to supply power to a load of the terminal during the constant current charging through a power supply channel between the second output end and the load such that the load of the terminal does not take electricity from the current entering the cell but takes electricity from the external power supply device through the second output end of the charging management circuit ; and a control circuit , configured to stop the constant current charging when a voltage across both ends of the cell reaches a constant current charging cut-off voltage of the constant current charging, wherein the constant current charging cut-off voltage is greater than a rated voltage of the cell, and is configured such that a true voltage of the cell is not overvoltage in the constant current charging, wherein the voltage across both ends of the cell includes the true voltage of the cell and a floating voltage, wherein the true voltage of the cell is the stable voltage between positive and negative electrodes of the cell and the floating voltage is caused by internal resistance of the cell .
Folding roller with at least one circumferential groove and a collar arranged at least partially in the circumferential groove and comprising a material with a Shore A hardness in the range between 50 and 95 Shore, characterized in that the collar projects slightly beyond the surface of the folding roller and comprises at least one flexible axial section which is either radially movable and/or positionable at least in part with respect to the folding roller , the groove and/or a base of the groove.