mhurhangee/ep-ind-claims huggingface dataset:
A cardiac tissue ablation system comprising: an elongate catheter that is formed of a material that is substantially transparent to radiant ablative energy and is configured to deliver a distal end thereof to a patient's heart; an expandable member that is attached to the catheter, the expandable member being substantially transparent to radiant ablative energy and having an elastic portion configured to conform to the shape of a target tissue region upon expansion; an energy emitter assembly movably disposed within a lumen of the catheter, the energy emitter assembly including an energy emitter that is axially movable within a hollow interior of the expandable member, the energy emitter being configured to deliver a spot or an arc-shaped segment of radiant ablative energy through the expandable member to the target tissue region; and a first motor that is operatively coupled to the energy emitter and configured to controllably rotate the energy emitter along a defined arcuate path to form an arcuate shaped lesion in the target tissue, a console to which the catheter is operatively and electrically coupled, wherein the first motor is disposed within a handle of the catheter or within the console, and wherein the console includes a display and a user interface configured to allow a user to input commands for controlling the rotation of the energy emitter along the arcuate path in a sweeping action. an elongate catheter that is formed of a material that is substantially transparent to radiant ablative energy and is configured to deliver a distal end thereof to a patient's heart; an expandable member that is attached to the catheter, the expandable member being substantially transparent to radiant ablative energy and having an elastic portion configured to conform to the shape of a target tissue region upon expansion; an energy emitter assembly movably disposed within a lumen of the catheter, the energy emitter assembly including an energy emitter that is axially movable within a hollow interior of the expandable member, the energy emitter being configured to deliver a spot or an arc-shaped segment of radiant ablative energy through the expandable member to the target tissue region; and a first motor that is operatively coupled to the energy emitter and configured to controllably rotate the energy emitter along a defined arcuate path to form an arcuate shaped lesion in the target tissue, a console to which the catheter is operatively and electrically coupled, wherein the first motor is disposed within a handle of the catheter or within the console, and wherein the console includes a display and a user interface configured to allow a user to input commands for controlling the rotation of the energy emitter along the arcuate path in a sweeping action.
Use of CXCR1 as a biomarker in a method of predicting response in a cancer subject to treatment with an Epidermal Growth Factor Receptor (EGFR) targeted therapeutic.
An inerting system comprising: a fuel source configured to transfer fuel into a fuel supply line; a combustion air source configured to supply combustion air to mix with the fuel; a catalytic oxidation unit configured to receive the fuel from the fuel source and the combustion air from the combustion air source, to convert the fuel and the combustion air to inert air, and to deliver the inert air to an inert air supply line; an oxygen sensor connected to the inert air supply line downstream of the catalytic oxidation unit, the oxygen sensor configured to produce a sensor signal representing a concentration of oxygen in the inert air; a controller configured to control flow of the combustion air and the fuel into the catalytic oxidation unit as a function of the sensor signal from the oxygen sensor representing the concentration of oxygen in the inert air in the inert air supply line; characterized by: a dilution air source connected to the inert air supply line downstream of the catalytic oxidation unit, wherein the controller is configured to insert dilution air from the dilution air source into the inert air as a function of the sensor signal from the oxygen sensor; and a location requiring inert air downstream of the oxygen sensor, the location configured to receive the inert air. a fuel source configured to transfer fuel into a fuel supply line; a combustion air source configured to supply combustion air to mix with the fuel; a catalytic oxidation unit configured to receive the fuel from the fuel source and the combustion air from the combustion air source, to convert the fuel and the combustion air to inert air, and to deliver the inert air to an inert air supply line; an oxygen sensor connected to the inert air supply line downstream of the catalytic oxidation unit, the oxygen sensor configured to produce a sensor signal representing a concentration of oxygen in the inert air; a controller configured to control flow of the combustion air and the fuel into the catalytic oxidation unit as a function of the sensor signal from the oxygen sensor representing the concentration of oxygen in the inert air in the inert air supply line; characterized by: a dilution air source connected to the inert air supply line downstream of the catalytic oxidation unit, wherein the controller is configured to insert dilution air from the dilution air source into the inert air as a function of the sensor signal from the oxygen sensor; and a location requiring inert air downstream of the oxygen sensor, the location configured to receive the inert air.
Driving unit for driving two substantially parallel beams (2,6) away or towards each other, comprising: - a first beam of the substantially parallel beams and a second beam; - and driving means at least arranged between the first beam and the second beam; characterized in that - the driving means are substantially arranged inside the first beam, - the first beam comprises a front plate, a back plate spaced apart from the front plate and a plurality of strips (14,15) arranged between the front plate and the back plate, like the web of an I-beam, and wherein the driving means comprise a first row of rollers arranged to the first beam, a second row of rollers arranged to a frame, a belt running along the rollers (16,17) in a serpentine path, and a take up reel (19,20) for taking up the belt in order to urge the first row of rollers towards the second row of rollers. - a first beam of the substantially parallel beams and a second beam; - and driving means at least arranged between the first beam and the second beam; characterized in that - the driving means are substantially arranged inside the first beam, - the first beam comprises a front plate, a back plate spaced apart from the front plate and a plurality of strips (14,15) arranged between the front plate and the back plate, like the web of an I-beam, and
A catheter comprising: an inner layer made of a resin; a braid surrounding an outer periphery of the inner layer, the braid including a first wire and a second wire; and an outer layer surrounding an outer periphery of the braid, the outer layer being made of a resin, wherein the first wire and the second wire are joined together via a joint (100, 200) at which a distal end portion of the first wire covers a side surface of the second wire, characterized in that a distal end portion of the first wire is wrapped around the side surface of the second wire at an intersection point at which the first wire and the second wire cross one another. an inner layer made of a resin; a braid surrounding an outer periphery of the inner layer, the braid including a first wire and a second wire; and an outer layer surrounding an outer periphery of the braid, the outer layer being made of a resin, wherein the first wire and the second wire are joined together via a joint (100, 200) at which a distal end portion of the first wire covers a side surface of the second wire, characterized in that a distal end portion of the first wire is wrapped around the side surface of the second wire at an intersection point at which the first wire and the second wire cross one another.
An interior member comprising: a first skin material comprising: a first exposed part, exposed to a cabin interior; and a first embedded part, embedded on a cabin exterior side from the first exposed part; a second skin material comprising: a second exposed part, exposed to the cabin interior and adjacent to the first exposed part; and a second embedded part, embedded on the cabin exterior side from the second exposed part and joined to the first embedded part; and a transducer (4A to 4D) comprising: a main body, disposed directly back of the first exposed part; and a wiring part, disposed directly back of at least the first embedded part and electrically connected to the main body, wherein an end of the wiring part is disposed on the cabin exterior side of the first embedded part, the interior member being characterized by further comprising: a first stitch, suturing the first embedded part and the second embedded part, and sewing the wiring part on the first embedded part. a first skin material comprising: a first exposed part, exposed to a cabin interior; and a first embedded part, embedded on a cabin exterior side from the first exposed part; a first exposed part, exposed to a cabin interior; and a first embedded part, embedded on a cabin exterior side from the first exposed part; a second skin material comprising: a second exposed part, exposed to the cabin interior and adjacent to the first exposed part; and a second embedded part, embedded on the cabin exterior side from the second exposed part and joined to the first embedded part; and a second exposed part, exposed to the cabin interior and adjacent to the first exposed part; and a second embedded part, embedded on the cabin exterior side from the second exposed part and joined to the first embedded part; and a transducer (4A to 4D) comprising: a main body, disposed directly back of the first exposed part; and a wiring part, disposed directly back of at least the first embedded part and electrically connected to the main body, wherein a main body, disposed directly back of the first exposed part; and a wiring part, disposed directly back of at least the first embedded part and electrically connected to the main body, wherein an end of the wiring part is disposed on the cabin exterior side of the first embedded part, the interior member being characterized by further comprising: a first stitch, suturing the first embedded part and the second embedded part, and sewing the wiring part on the first embedded part.
A handheld device for extraction of tissue samples, comprising a needle arrangement and a control arrangement, said needle arrangement comprising - a cutting needle and - a sample extraction needle, said needle arrangement having a first end for inserting into tissue, said cutting needle comprising - a cutting edge for cutting said tissue sample from said tissue, said sample extraction needle comprising - a side opening for receiving said tissue and extending into a tissue sample chamber holding said tissue sample, wherein the tissue sample chamber is located at the first end of needle arrangement, said control arrangement comprising - a vacuum chamber in fluid communication with said sample extraction needle, the vacuum chamber comprising - a first member and - a second member, said first and second members being adapted to move relative to each other, wherein said first member is mechanically connected to said cutting needle, and wherein said handheld device is configured so that - a movement between said first member and said second member to increase the volume of said vacuum chamber thereby reducing the pressure in said sample extraction needle induces - a movement between said cutting needle and said sample extraction needle to expose said side opening of said sample extraction needle, characterized in that said vacuum chamber is adapted to build up a vacuum in the tissue sample chamber before the side opening is exposed. - a cutting needle and - a sample extraction needle, - a cutting edge for cutting said tissue sample from said tissue, said sample extraction needle comprising - a side opening for receiving said tissue and extending into a tissue sample chamber holding said tissue sample, wherein the tissue sample chamber is located at the first end of needle arrangement, - a vacuum chamber in fluid communication with said sample extraction needle, - a first member and - a second member, - a movement between said first member and said second member to increase the volume of said vacuum chamber thereby reducing the pressure in said sample extraction needle - a movement between said cutting needle and said sample extraction needle to expose said side opening of said sample extraction needle, characterized in that said vacuum chamber is adapted to build up a vacuum in the tissue sample chamber before the side opening is exposed.
A carrier strip for substrate-free joint rooting of a plurality of unrooted cuttings, comprising (i) a carrier strip having a plurality of cavities which are open at the top for receiving an unrooted cutting in each cavity, each cavity being provided with openings at least in a region associated with a cutting base, (ii) an unrooted cutting in each cavity, characterized in that a water-resistant, water- and air-permeable climate membrane is attached to the carrier strip provided with the cuttings such that at least the region of each cavity of the carrier strip that is associated with the cutting base is enclosed by the climate membrane. (i) a carrier strip having a plurality of cavities which are open at the top for receiving an unrooted cutting in each cavity, each cavity being provided with openings at least in a region associated with a cutting base, (ii) an unrooted cutting in each cavity,
A user equipment, UE, in a wireless communication system, the UE comprising: a memory; a radio frequency, RF, unit; and a processor, coupled to the memory and the RF unit, that: controls the RF unit to receive a system information modification that indicates if a change has occurred in system information from an eNodeB, eNB, on a UE-dedicated channel via a radio resource control, RRC, connection reconfiguration message, and controls the RF unit to receive at least one system information block from the eNB according to the system information modification. a memory; a radio frequency, RF, unit; and a processor, coupled to the memory and the RF unit, that: controls the RF unit to receive a system information modification that indicates if a change has occurred in system information from an eNodeB, eNB, on a UE-dedicated channel via a radio resource control, RRC, connection reconfiguration message, and controls the RF unit to receive at least one system information block from the eNB according to the system information modification. controls the RF unit to receive a system information modification that indicates if a change has occurred in system information from an eNodeB, eNB, on a UE-dedicated channel via a radio resource control, RRC, connection reconfiguration message, and controls the RF unit to receive at least one system information block from the eNB according to the system information modification.
A lithium secondary battery, comprising a negative electrode comprising a negative electrode active material layer comprising a soft carbon negative electrode active material and a byproduct having a particle size of 10 nm to 70 nm, the average particle diameter indicating a diameter of a particle where an accumulated volume is about 50 volume% in a particle distribution; a positive electrode comprising a positive electrode active material; and an electrolyte, the lithium secondary battery is subjected to an activating process comprising a first aging process, first charging and discharging processes, a second aging process, second charging and discharging processes, a third aging process, and a fourth aging process, and the first aging process is performed in less than 1440 minutes, and wherein the byproduct comprises C and LiF. a negative electrode comprising a negative electrode active material layer comprising a soft carbon negative electrode active material and a byproduct having a particle size of 10 nm to 70 nm, the average particle diameter indicating a diameter of a particle where an accumulated volume is about 50 volume% in a particle distribution; a positive electrode comprising a positive electrode active material; and an electrolyte, the lithium secondary battery is subjected to an activating process comprising a first aging process, first charging and discharging processes, a second aging process, second charging and discharging processes, a third aging process, and a fourth aging process, and the first aging process is performed in less than 1440 minutes, and wherein the byproduct comprises C and LiF.
A method of operating a base station apparatus, gNB, comprising: determining that a direct link between a first User Equipment, UE, and a second UE should be established; and transmitting information to the first UE and the second UE to enable a beam search procedure between the first UE and the second UE, wherein the information includes a number or ID of transmit or receive beams to be used in the beam search procedure. determining that a direct link between a first User Equipment, UE, and a second UE should be established; and transmitting information to the first UE and the second UE to enable a beam search procedure between the first UE and the second UE, wherein the information includes a number or ID of transmit or receive beams to be used in the beam search procedure.
A cationic lipid which is a compound represented by the general formula or a pharmaceutically acceptable salt thereof: wherein L is an alkyl having 7-12 carbon atoms or an alkenyl having 7-12 carbon atoms, R is an alkyl having 1-2 carbon atoms, and n 1 and n 2 are independently an integer of 1-3. wherein L is an alkyl having 7-12 carbon atoms or an alkenyl having 7-12 carbon atoms, R is an alkyl having 1-2 carbon atoms, and n 1 and n 2 are independently an integer of 1-3.
An aqueous cosmetic containing at least 5 to 30 % by mass of titanium oxide, an acid dye, an alkali-soluble type acryl resin and water or containing at least 5 to 30 % by mass of titanium oxide, an organic pigment, an alkali-soluble type acryl resin and water, wherein the alkali-soluble type acryl resin is an (alkyl acrylate/octylacrylamide) copolymer, and wherein a mass ratio of the alkali-soluble type acryl resin to titanium oxide is 0.04 to 1, based on 1 of titanium oxide.
A method for mapping colours of pixels of an image from a source colour gamut to a destination colour gamut associated with an output device, both gamuts having a black point, the method comprising a step of adaptive black point compensation, characterised in that the step of black point compensation is, in dependence on a histogram of the image, carried out if a number of pixels below the black point of the destination colour gamut in the histogram is larger than a first threshold and is not carried out if the number of pixels is smaller than or equal to said first threshold.
A banknote handling apparatus comprising: a recognition unit configured to recognize types including denominations and multiple series of banknotes, wherein each series of banknotes for each denomination is issued during a certain period of time; a plurality of stacking units (60, 60a to 60d) configured to stack therein banknotes recognized by the recognition unit, by type; a storage unit configured to store therein a version classification setting in which classification of a version is set for each series of each denomination, the version including an old version and a new version; and a control unit configured to determine, on the basis of the version classification setting stored in the storage unit, a version of each of the multiple series of banknotes recognized by the recognition unit as the old version or the new version, and configured to control stacking the recognized banknotes in the stacking units (60, 60a to 60d) corresponding to the denominations and the old and new versions of the banknotes. a recognition unit configured to recognize types including denominations and multiple series of banknotes, wherein each series of banknotes for each denomination is issued during a certain period of time; a plurality of stacking units (60, 60a to 60d) configured to stack therein banknotes recognized by the recognition unit, by type; a storage unit configured to store therein a version classification setting in which classification of a version is set for each series of each denomination, the version including an old version and a new version; and a control unit configured to determine, on the basis of the version classification setting stored in the storage unit, a version of each of the multiple series of banknotes recognized by the recognition unit as the old version or the new version, and configured to control stacking the recognized banknotes in the stacking units (60, 60a to 60d) corresponding to the denominations and the old and new versions of the banknotes.
An energy storage module for a power supply device, especially a motor vehicle, comprising - a plurality of prismatic storage cells which, stacked to form at least one row, are arranged in series, - two end plates and at least one tensioning element, wherein the at least one row of stacked storage cells is braced between the two end plates by means of the tensioning element, and wherein at least one end plate comprises at least one support surface for resting on a structure bearing the energy storage module, and - a thermally insulating shaped part which is arranged between one of the end plates and the storage cell adjoining the end plate, characterised in that at least one thermally insulating element is arranged on the shaped part such that the shaped part is manufactured in one piece with the at least one element, especially as an injection-moulded part, and the at least one thermally insulating element is arranged on the support surface, for thermal insulation between the end plate and the bearing structure, comprising at least one bolt, preferably configured as a screw, for fastening the energy storage module to the bearing structure, wherein the bolt passes through the thermally insulating element. - a plurality of prismatic storage cells which, stacked to form at least one row, are arranged in series, - two end plates and at least one tensioning element, wherein the at least one row of stacked storage cells is braced between the two end plates by means of the tensioning element, and wherein at least one end plate comprises at least one support surface for resting on a structure bearing the energy storage module, and - a thermally insulating shaped part which is arranged between one of the end plates and the storage cell adjoining the end plate,
A dispersed aqueous formulation containing silver nanoparticles, comprising 0.5% to 60% by weight of silver nanoparticles and at least two stabilizers from the non-ionic surfactant group, wherein the proportion of silver nanoparticles to stabilizer is in the range of 10:2 to 10:50, wherein the at least two stabilizers are selected from the group consisting of polyoxyethylene-mono-alkyl acid esters, polyoxypropylene-mono-alkyl acid esters, polyoxyethylene-di-alkyl acid esters, polyoxypropylene-di-alkyl acid esters, polyoxyethylene-tri-alkyl acid esters, polyoxypropylene-tri-alkyl acid esters and mixtures thereof.