mhurhangee/ep-ind-claims huggingface dataset:
Composition in the form of a water-in-oil emulsion comprising: - from 20% to 40% (v/v) of aqueous phase, in the form of droplets, comprising an anti-cancer agent, - from 60% to 80% (v/v) of lipid phase comprising an iodized oil and at least one surfactant of formula in a proportion, by weight of surfactant relative to the total volume of the composition, of 0.3% to 5%, formula of said surfactant being the following: in which: - s is 0 or 1, - m represents an integer from 2 to 30, - R 1 represents a group of formula in which n represents an integer from 4 to 10, o represents an integer from 1 to 4, p represents an integer from 3 to 7, q represents an integer from 2 to 10 and r is 0 or 1, - R 2 represents a hydrogen atom or is identical to R 1, and - each R 3 independently represents a hydrogen atom or is identical to R 1. - from 20% to 40% (v/v) of aqueous phase, in the form of droplets, comprising an anti-cancer agent, - from 60% to 80% (v/v) of lipid phase comprising an iodized oil and at least one surfactant of formula in a proportion, by weight of surfactant relative to the total volume of the composition, of 0.3% to 5%, formula of said surfactant being the following: in which: - s is 0 or 1, - m represents an integer from 2 to 30, - R 1 represents a group of formula in which n represents an integer from 4 to 10, o represents an integer from 1 to 4, p represents an integer from 3 to 7, q represents an integer from 2 to 10 and r is 0 or 1, - R 2 represents a hydrogen atom or is identical to R 1, and - each R 3 independently represents a hydrogen atom or is identical to R 1. - s is 0 or 1, - m represents an integer from 2 to 30, - R 1 represents a group of formula in which n represents an integer from 4 to 10, o represents an integer from 1 to 4, p represents an integer from 3 to 7, q represents an integer from 2 to 10 and r is 0 or 1, - R 2 represents a hydrogen atom or is identical to R 1, and - each R 3 independently represents a hydrogen atom or is identical to R 1.
A hybrid cable/rail transportation system comprising: - at least one portion of the system configured as a cable transportation system and comprising at least one supporting cable; - at least one portion of the system configured as a rail transportation system and comprising at least one rail, wherein the portion of the system configured as a cable transportation system is upstream and/or downstream of the portion of the system configured as a rail transportation system; - a first trolley coupled to the supporting cable; - a second trolley coupled to the rail; - a plurality of transportation units wherein each transportation unit comprises a cabin, each cabin comprising a roof provided with a coupling system configured for coupling the cabin to the first trolley along the system portion configured as a cable transportation system characterised in that the coupling system is also configured for coupling the cabin to the second trolley along the system portion configured as a rail transportation system. - at least one portion of the system configured as a cable transportation system and comprising at least one supporting cable; - at least one portion of the system configured as a rail transportation system and comprising at least one rail, wherein the portion of the system configured as a cable transportation system is upstream and/or downstream of the portion of the system configured as a rail transportation system; - a first trolley coupled to the supporting cable; - a second trolley coupled to the rail; - a plurality of transportation units wherein each transportation unit comprises a cabin, each cabin comprising a roof provided with a coupling system configured for coupling the cabin to the first trolley along the system portion configured as a cable transportation system
A separator, comprising a porous substrate; and a porous layer, wherein the porous layer is disposed on a surface of the porous substrate and comprises inorganic particles and a binder; and the porous substrate has an absolute plastic deformation rate in a first direction ranging from 40% to 1800%, with the absolute plastic deformation rate being measured as described in the specification and in figure 1. a porous substrate; and a porous layer, wherein the porous layer is disposed on a surface of the porous substrate and comprises inorganic particles and a binder; and the porous substrate has an absolute plastic deformation rate in a first direction ranging from 40% to 1800%, with the absolute plastic deformation rate being measured as described in the specification and in figure 1.
An audio amplifier for a mobile telephone, the audio amplifier comprising first and second output stages (11, 12), each for coupling to a respective one of first and second loudspeakers (4, 5), and switching circuitry adapted to respond to a switching signal by switching an output signal from a common input stage (7, 8, 9) to the first output stage when the switching signal is in a first state and to the second output stage when the switching signal is in a second state, wherein the common input stage (7, 8, 9) comprises a pulse width modulator, whereby the output signal is a pulse width modulated output signal for driving either the first or second output stage, characterised in that the pulse width modulator comprises a slew rate limiter for limiting the slew rate of the pulse width modulated output signal in response to a slew rate limiter enable signal.
A Zn-Fe quasi-solid redox battery (100; 200; 300; 400; 500; 600; 700; 800) comprising: - a first half-cell (102; 202) comprising: a first quasi-solid electrolyte selected from a first quasi-solid electrolyte in which are dissolved Zn 2+ ions and a first quasi-solid electrolyte in which are dispersed organic and/or inorganic electroactive particles containing zinc ions in different oxidation states; a current collector (108; 208); and an electrode (104; 204, 210) disposed within the first half-cell; - a second half-cell (112; 302) comprising: a second quasi-solid electrolyte selected from a second quasi-solid electrolyte in which are dissolved Fe 2+ and Fe 3+ ions and a second quasi-solid electrolyte in which are dispersed organic and/or inorganic electroactive particles containing Fe 2+ and Fe 3+ ions; a current collector (118; 318); and an electrode (114; 304, 310) disposed within the second half-cell; and - a separator (110; 510) between the two half-cells, wherein said first and second quasi-solid electrolytes are, independently from each other, in the form of a plasticized polymer electrolyte or of a composite polymer electrolyte. - a first half-cell (102; 202) comprising: a first quasi-solid electrolyte selected from a first quasi-solid electrolyte in which are dissolved Zn 2+ ions and a first quasi-solid electrolyte in which are dispersed organic and/or inorganic electroactive particles containing zinc ions in different oxidation states; a current collector (108; 208); and an electrode (104; 204, 210) disposed within the first half-cell; - a second half-cell (112; 302) comprising: a second quasi-solid electrolyte selected from a second quasi-solid electrolyte in which are dissolved Fe 2+ and Fe 3+ ions and a second quasi-solid electrolyte in which are dispersed organic and/or inorganic electroactive particles containing Fe 2+ and Fe 3+ ions; a current collector (118; 318); and an electrode (114; 304, 310) disposed within the second half-cell; and - a separator (110; 510) between the two half-cells,
A radiation source module for use in a fluid treatment system, the radiation source module comprising: (a) a frame element comprising a bottom frame element, a top frame element, a first side frame element and a second side frame element; (b) a plurality of elongate radiation source elements secured to the frame element each elongate radiation source element having a longitudinal axis; (c) a first drive element secured to a first side portion of the frame element; (d) a second drive element secured to a second side portion of the frame element; (e) the two drive elements (117,119) are disposed on opposed sides of the frame element; (f) the two side frame elements (107,109) and the two drive elements (117,119) are arranged parallel to each other; (g) the two drive elements (117,119) are configured to reversably translate the plurality of elongate radiation source elements in a direction parallel to the longitudinal axis, thereby supporting the modul. (a) a frame element comprising a bottom frame element, a top frame element, a first side frame element and a second side frame element; (b) a plurality of elongate radiation source elements secured to the frame element each elongate radiation source element having a longitudinal axis; (c) a first drive element secured to a first side portion of the frame element; (d) a second drive element secured to a second side portion of the frame element; (e) the two drive elements (117,119) are disposed on opposed sides of the frame element; (f) the two side frame elements (107,109) and the two drive elements (117,119) are arranged parallel to each other; (g) the two drive elements (117,119) are configured to reversably translate the plurality of elongate radiation source elements in a direction parallel to the longitudinal axis, thereby supporting the modul.
An external fixator configured for being used in orthopedics, comprising - at least one Kirschner wire to fix the bones and soft tissues; and - at least four half rings which comprise ledged areas on each end that provide connections to form full rings having an outer edge and rod holes at certain intervals parallel to an axis of the ring, - at least four connectors which fix the half rings to each other through the connection holes, - at least three threaded rods, - nuts which fix the rods to the half rings, - at least two wire fixation bolts which are passed through the rod holes to fix the Kirschner wire at both ends to the half rings and characterized by respective channel slots between the rod holes and the outer edge of the rings, the channel slots being narrower than the rod holes. - at least one Kirschner wire to fix the bones and soft tissues; and - at least four half rings which comprise ledged areas on each end that provide connections to form full rings having an outer edge and rod holes at certain intervals parallel to an axis of the ring, - at least four connectors which fix the half rings to each other through the connection holes, - at least three threaded rods, - nuts which fix the rods to the half rings, - at least two wire fixation bolts which are passed through the rod holes to fix the Kirschner wire at both ends to the half rings and
A crystal comprising human isoglutaminyl cyclase having a characterised space group of P1211 and unit cell dimensions of +/- 5% of a = 126.51 Å, b = 109.68 Å, c = 159.53 Å, α = 90.0o, β = 104.9o and γ = 90.0o.
Apparatus for machining workpieces, preferably panel-formed workpieces, wherein the workpieces consist in particular at least partially of wood, wood-based materials, plastic, aluminium, sheet metal or a combination thereof, having: a processing device with a tool for machining the workpieces, a suction extraction device for sucking out chips produced during the machining, a suction intake region for sucking in the workpieces during the machining, a vacuum interface region, in particular a connection section, for a vacuum device, said vacuum interface region being connected with the suction extraction device and the suction intake region in order to supply the suction extraction device and the suction intake region with vacuum, and a conveyor device with a conveyor section for transporting the workpieces by means of at least one transport device, wherein the processing device is arranged in the region of the conveyor section and wherein the suction intake region sucks in the workpieces in the direction of the at least one transport device, characterised in that the apparatus is configured to transport the workpiece through the conveyor device during the machining. a processing device with a tool for machining the workpieces, a suction extraction device for sucking out chips produced during the machining, a suction intake region for sucking in the workpieces during the machining, a vacuum interface region, in particular a connection section, for a vacuum device, said vacuum interface region being connected with the suction extraction device and the suction intake region in order to supply the suction extraction device and the suction intake region with vacuum, and a conveyor device with a conveyor section for transporting the workpieces by means of at least one transport device, wherein the processing device is arranged in the region of the conveyor section and wherein the suction intake region sucks in the workpieces in the direction of the at least one transport device, characterised in that the apparatus is configured to transport the workpiece through the conveyor device during the machining.
A digital microfluidics system for manipulating samples in liquid droplets within the gap between a first hydrophobic surface of a bottom layer and a second hydrophobic surface (17") of at least one disposable cartridge, the digital microfluidics system comprising: (a) a base unit with at least one cartridge accommodation site that is configured for taking up one disposable cartridge; (b) an electrode array located at said at least one cartridge accommodation site of the base unit, the electrode array being supported by a bottom substrate and substantially extending in a first plane and comprising a number of individual electrodes; and (c) a central control unit for controlling the selection of the individual electrodes of said electrode array and for providing these electrodes with individual voltage pulses for manipulating liquid droplets within the gap of said cartridge by electrowetting, wherein the digital microfluidics system further comprises: (d) a number of suction holes that penetrate the electrode array and/or the bottom substrate and that are located at the cartridge accommodation site of the base unit; (e) a vacuum source for establishing an underpressure in an evacuation space; and (f) a number of vacuum lines that link the suction holes to the vacuum source; wherein a gasket of the digital microfluidics system or of a disposable cartridge is configured to seal at said cartridge accommodation site the evacuation space, which is defined by a flexible bottom layer of a disposable cartridge, an uppermost surface of the cartridge accommodation site, and the gasket; and wherein the underpressure in the evacuation space causes the flexible bottom layer that is placed at the cartridge accommodation site to be attracted to and spread over the uppermost surface of the cartridge accommodation site of the digital microfluidics system, the gasket defining a particular distance between said first hydrophobic surface and said second hydrophobic surface (17"). (a) a base unit with at least one cartridge accommodation site that is configured for taking up one disposable cartridge; (b) an electrode array located at said at least one cartridge accommodation site of the base unit, the electrode array being supported by a bottom substrate and substantially extending in a first plane and comprising a number of individual electrodes; and (c) a central control unit for controlling the selection of the individual electrodes of said electrode array and for providing these electrodes with individual voltage pulses for manipulating liquid droplets within the gap of said cartridge by electrowetting, wherein the digital microfluidics system further comprises: (d) a number of suction holes that penetrate the electrode array and/or the bottom substrate and that are located at the cartridge accommodation site of the base unit; (e) a vacuum source for establishing an underpressure in an evacuation space; and (f) a number of vacuum lines that link the suction holes to the vacuum source;
An antiperspirant active composition comprising an aluminum salt, the aluminum salt (i) having an aluminum to chloride molar ratio of 0.3:1 to 3:1; and (ii) exhibiting an 27 Al NMR spectrum with a species distribution including at least 95% Al 30 polyhydroxyoxoaluminum cation as the predominant species detectable by 27 Al NMR within the aluminum salt, wherein the aluminum salt exhibits a SEC chromatogram having a SEC Peak 4 area of at least 90% of a total area of Peaks 1, 2, 3, 4 and 5 in the SEC chromatogram.
A positive active material for a rechargeable lithium battery, comprising: a first positive active material comprising a secondary particle comprising at least two agglomerated primary particles, at least one part of the primary particles having a radial arrangement structure; and a second positive active material having a monolith structure, wherein the radial arrangement structure is a structure wherein the primary particle has a thickness that is smaller than a long-axis length and the thickness direction is arranged perpendicular to or within an angle of ±5° from perpendicular with respect to a direction toward the center of the secondary particle; and the monolith structure is a structure in which the morphology of each particle is separated and/or dispersed in independent phases separated from each other rather than a coagulated form, and both of the first positive active material and the second positive active material comprise a nickel-based positive active material. a first positive active material comprising a secondary particle comprising at least two agglomerated primary particles, at least one part of the primary particles having a radial arrangement structure; and a second positive active material having a monolith structure, wherein the radial arrangement structure is a structure wherein the primary particle has a thickness that is smaller than a long-axis length and the thickness direction is arranged perpendicular to or within an angle of ±5° from perpendicular with respect to a direction toward the center of the secondary particle; and the monolith structure is a structure in which the morphology of each particle is separated and/or dispersed in independent phases separated from each other rather than a coagulated form, and both of the first positive active material and the second positive active material comprise a nickel-based positive active material.
A photovoltaic device comprising at least two electrical contacts, p type dopants and n type dopants, further comprising a bulk region and nanowires in an aligned array which contact the bulk region, wherein all nanowires in the array have one predominant type of dopant, n or p, and at least a portion of the bulk region also comprises that predominant type of dopant, wherein a surface of the bulk region lies substantially along a plane and the nanowires are aligned normal to that plane, characterized in that one of the electrical contacts extends to the area where the nanowires contact the bulk region.
A rapid-prototyping machine comprising three-dimensional printing means and a mechatronic movement system for said printing means, of the type equipped with at least one microprocessor electronic board, said movement system being characterized in that said printing means are mobile exclusively in the horizontal plane X-Y and in that moving of the printing means of the 3D printer along the axes X and Y of the horizontal plane is obtained exclusively via geared kinematic chains provided with pinions and racks (Cx, Cy) with helical teeth for reducing the play, vibrations, friction, and noise typical of gears with straight teeth; wherein the racks along the axis X or else those along the axis Y of the horizontal plane are fixed directly to the chassis of the system itself, whereas the resting surface of the three-dimensional object is mobile along the vertical axis Z via at least one ballscrew, driven by a motor (Mz); and wherein said means for movement along the axis X comprise one single rack (Cx) and said means for movement along the axis Y comprise two racks (Cy).
Motor vehicle bumper arrangement with a cross member and first deformation elements in the form of crash boxes, wherein a second deformation element is provided laterally next to at least one first deformation element, wherein the second deformation element is an extruded profile and has an inner side wall and an outer side wall, which are connected to one another via at least one transverse web (14, 15), wherein the second deformation element is disposed offset outwardly relative to the first deformation element in the direction of the end of the cross member and one of the crash boxes can be integrated between a longitudinal member of the motor vehicle and the cross member, wherein the cross member has a central longitudinal section to which end sections are connected on both sides, each of which extends from a crash box outwardly to an outer end of the cross member, wherein the extruded profile is disposed laterally next to at least one crash box between the end section and a longitudinal member-side support, characterised in that at least one wall section (19, 20) of the extruded profile has a target deformation element and/or an expansion compensation element. wherein the second deformation element is an extruded profile and has an inner side wall and an outer side wall, which are connected to one another via at least one transverse web (14, 15), wherein the second deformation element is disposed offset outwardly relative to the first deformation element in the direction of the end of the cross member and one of the crash boxes can be integrated between a longitudinal member of the motor vehicle and the cross member, wherein the cross member has a central longitudinal section to which end sections are connected on both sides, each of which extends from a crash box outwardly to an outer end of the cross member, wherein the extruded profile is disposed laterally next to at least one crash box between the end section and a longitudinal member-side support, characterised in that at least one wall section (19, 20) of the extruded profile has a target deformation element and/or an expansion compensation element.