mhurhangee/ep-ind-claims huggingface dataset:
A box (40; 240; 340; 440; 540) for vacuum storage, comprising a container (60; 260) and a lid (80; 280) for closing the container, wherein: - the container comprises a body (62; 262) with an inner wall (64; 264) and an outer wall (66; 266), the inner wall delimiting an inner volume (V64; V264) of the container, the inner volume being open upwards when the container is placed on a horizontal surface, the inner walls (64; 264) and outer walls (66; 266) being connected to each other at an edge (68; 268) and defining therebetween a first cavity (V66; V266), the edge having a closed contour, - the lid (80; 280) comprises a body with a boundary (84; 284) having a closed contour and intended to be pressed tightly against the edge (68; 268) of the container (60; 260) when the lid is assembled with the container in a closed configuration of the box, - the first cavity (V66; V266) leads to the outside environment through at least one opening (70; 270), each opening comprising a first anti-return valve (72; 272), which allows gas to flow from the first cavity to the outside and prevents the flow of gas from the outside toward the first cavity, characterized in that the first cavity leads to the inner volume through at least one passage (74; 274). - the container comprises a body (62; 262) with an inner wall (64; 264) and an outer wall (66; 266), the inner wall delimiting an inner volume (V64; V264) of the container, the inner volume being open upwards when the container is placed on a horizontal surface, the inner walls (64; 264) and outer walls (66; 266) being connected to each other at an edge (68; 268) and defining therebetween a first cavity (V66; V266), the edge having a closed contour, - the lid (80; 280) comprises a body with a boundary (84; 284) having a closed contour and intended to be pressed tightly against the edge (68; 268) of the container (60; 260) when the lid is assembled with the container in a closed configuration of the box, - the first cavity (V66; V266) leads to the outside environment through at least one opening (70; 270), each opening comprising a first anti-return valve (72; 272), which allows gas to flow from the first cavity to the outside and prevents the flow of gas from the outside toward the first cavity,
A method of cryopreserving stem cells on a substrate, the method comprising: exposing a substrate seeded with stem cells to a temperature ramp-down phase temperature reduction rate of from 10°C per 10 seconds to 10°C per 120 seconds to a final temperature of approximately 0°C, wherein the substrate comprises parylene, wherein the substrate has one or more characteristics selected from (i) a coefficient of thermal expansion of the substrate, (ii) a substrate elasticity parameter, or (iii) a substrate thickness, said characteristics enhancing viability of the seeded stem cells; transferring the cell-seeded substrate to an intermediate temperature from -20°C to -100°C for a first period of time; and, maintaining the stem cells at a storage temperature that is lower than the intermediate temperature for a second period of time thereby obtaining cryopreserved stem cells. exposing a substrate seeded with stem cells to a temperature ramp-down phase temperature reduction rate of from 10°C per 10 seconds to 10°C per 120 seconds to a final temperature of approximately 0°C, wherein the substrate comprises parylene, wherein the substrate has one or more characteristics selected from (i) a coefficient of thermal expansion of the substrate, (ii) a substrate elasticity parameter, or (iii) a substrate thickness, said characteristics enhancing viability of the seeded stem cells; (i) a coefficient of thermal expansion of the substrate, (ii) a substrate elasticity parameter, or (iii) a substrate thickness, said characteristics enhancing viability of the seeded stem cells; transferring the cell-seeded substrate to an intermediate temperature from -20°C to -100°C for a first period of time; and, maintaining the stem cells at a storage temperature that is lower than the intermediate temperature for a second period of time thereby obtaining cryopreserved stem cells.
A method drilling a borehole with an apparatus having at least one actuator (72, 160) for steering the apparatus, the method comprising: advancing the borehole by imparting rotation to the apparatus about an axis; obtaining angular rate readings of the rotation of the apparatus about the axis at zero-crossing points; obtaining angular position readings of the apparatus about the axis during the rotation; orienting the angular position readings obtained at the zero-crossing points to a toolface of the apparatus; determining angular positions of the apparatus about the axis by adjusting the angular rate readings based at least on the angular position readings orientated to the toolface of the apparatus; determining actuations of the at least one actuator (72, 160) during the rotation for steering the apparatus towards a target direction relative to the determined angular positions; and deviating the apparatus in the advancing borehole in response to the determined actuations of the at least one actuator (72, 160). advancing the borehole by imparting rotation to the apparatus about an axis; obtaining angular rate readings of the rotation of the apparatus about the axis at zero-crossing points; obtaining angular position readings of the apparatus about the axis during the rotation; orienting the angular position readings obtained at the zero-crossing points to a toolface of the apparatus; determining angular positions of the apparatus about the axis by adjusting the angular rate readings based at least on the angular position readings orientated to the toolface of the apparatus; determining actuations of the at least one actuator (72, 160) during the rotation for steering the apparatus towards a target direction relative to the determined angular positions; and deviating the apparatus in the advancing borehole in response to the determined actuations of the at least one actuator (72, 160).
A conjugate, comprising an antibody, having an Fc portion oxidized to create a hydrazide reactive functional group, covalently bonded to a detectable label through a reactive functional group provided by a polymeric carrier, the polymeric carrier comprising a polymeric portion including plural reactive functional groups selected from hydrazines, hydrazides, hydrazine derivatives, hydrazide derivatives, guanidines, aminoguanidines, hydroxyl amines, or combinations thereof; wherein the detectable label is an enzyme or a hapten, or a combination thereof; and wherein the polymeric carrier is coupled to the oxidized Fc portion of the antibody, and wherein the polymeric carrier comprises a polymeric portion selected from polyvinylpyrrolidones.
An article for a replaceable printer component, comprising an integrated circuit device to communicate information about the component to a printer controller when a component with the integrated circuit device is installed in a printer, the integrated circuit device including: a controller; a memory operatively connected to the controller to store and/or generate information about the component; a single pair of conductors (20, 22) to supply power to the controller and to carry data signals to and from the controller; characterised in that the article further comprising a detector to detect incoming data signals with a signal property associated with the component; and two electrical contacts (26, 28) each connected to one of the conductors (20, 22) to connect the integrated circuit device to a printer controller when a component with the integrated circuit device is installed in a printer, where the detector is configurable in response to a command from the controller to change the signal property associated with the component. a controller; a memory operatively connected to the controller to store and/or generate information about the component; a single pair of conductors (20, 22) to supply power to the controller and to carry data signals to and from the controller; characterised in that the article further comprising a detector to detect incoming data signals with a signal property associated with the component; and two electrical contacts (26, 28) each connected to one of the conductors (20, 22) to connect the integrated circuit device to a printer controller when a component with the integrated circuit device is installed in a printer, where the detector is configurable in response to a command from the controller to change the signal property associated with the component.
A method, comprising: encoding or decoding a picture by selectively enabling color compensation using a block level syntax element on a block basis of two color components in a prediction of the picture, also having one luminance component, using an offset relating to color data between the two color components of the picture and the corresponding components of another picture, wherein each color component uses a separate offset for compensation, and the luminance component has one luminance offset, the picture and the other picture having different viewpoints and both corresponding to multi-view content for a same or similar scene, and wherein there is one illumination compensation flag and one color compensation enable flag, wherein the offset is differentially coded with respect to offsets from spatially neighboring blocks.
A process for producing porous materials comprising the following steps: (a) reacting at least one polyfunctional isocyanate and at least one polyfunctional aromatic amine in an organic solvent optionally in the presence of water as component and optionally in the presence of at least one catalyst; and then (b) removing the organic solvent to obtain the organic porous material, where step (a) is carried out in the presence of at least one organic flame retardant as component, this flame retardant being soluble in the solvent, where the at least one polyfunctional aromatic amine is selected from the group consisting of isomers and derivatives of diaminodiphenylmethane. (a) reacting at least one polyfunctional isocyanate and at least one polyfunctional aromatic amine in an organic solvent optionally in the presence of water as component and optionally in the presence of at least one catalyst; and then (b) removing the organic solvent to obtain the organic porous material,
A module for an aircraft cabin, comprising a door to open the module, and a seat that is fastened to the door; wherein a seat surface of the seat can be swiveled from an essentially perpendicular stowage position into an essentially horizontal operating position; and wherein the module comprises a locking mechanism, which is designed to only allow the seat to swivel from the essentially perpendicular stowage position into the essentially horizontal operating position if the door is locked. a door to open the module, and a seat that is fastened to the door; wherein a seat surface of the seat can be swiveled from an essentially perpendicular stowage position into an essentially horizontal operating position; and wherein the module comprises a locking mechanism, which is designed to only allow the seat to swivel from the essentially perpendicular stowage position into the essentially horizontal operating position if the door is locked.
Device (35, 45, 51, 65) for guiding and pivoting bodies, such as cans, bottles, preforms, bottle closures, cardboard containers or flasks, wherein the guiding and pivoting of the bodies takes place by sliding the bodies on the device (35, 45, 51, 65), wherein the device (35, 45, 51, 65) was produced using a generative manufacturing method characterised in that the device comprises at least one wear strip.
A pharmaceutical composition for use in improving an ovarian tumor response to chemotherapy, said composition comprising an effective amount of microRNA-130b.
A sensor comprising: a printed circuit board; a photosensor mounted on a first side of the printed circuit board; and a light source mounted on a second, opposite side of the printed circuit board; and characterised in that, the light source is arranged to transmit light through at least a portion of the printed circuit board, said portion being impermeable to air; and further characterised by, an opaque chamber mounted on the first side of the printed circuit board over the photosensor; and wherein the light source is arranged such that the light transmitted through the printed circuit board is transmitted into the inside of the opaque chamber. a printed circuit board; a photosensor mounted on a first side of the printed circuit board; and a light source mounted on a second, opposite side of the printed circuit board; and characterised in that, the light source is arranged to transmit light through at least a portion of the printed circuit board, said portion being impermeable to air; and further characterised by, an opaque chamber mounted on the first side of the printed circuit board over the photosensor; and wherein the light source is arranged such that the light transmitted through the printed circuit board is transmitted into the inside of the opaque chamber.
An aerosol-generating article, comprising: an aerosol forming substrate; and a filter downstream of the aerosol forming substrate, wherein the filter comprises filter material comprising cellulose acetate filaments having a linear density of 6 denier or greater and a density of 0.19 g/cm 3 or less, wherein the filter has a resistance to draw of less than 130 mmWG. an aerosol forming substrate; and a filter downstream of the aerosol forming substrate, wherein the filter comprises filter material comprising cellulose acetate filaments having a linear density of 6 denier or greater and a density of 0.19 g/cm 3 or less, wherein the filter has a resistance to draw of less than 130 mmWG.
A device for heating unit blocks of solidified epilatory wax, wherein the device comprises a chamber wherein the chamber is provided with an additional heating means being a PTC (positive thermal co-efficient) heating element in the form of a circular tower wherein the device is provided with a temperature controlling means provided with a sensor which measures the temperature of the wax, the sensor being located adjacent the tower to ensure that the wax is maintained in a molten state within a temperature of 50°C - 70°C and further wherein the temperature controlling means is in direct contact with a metallic container which holds the wax, and further wherein the tower covers about 40 - 60% of the area of the chamber and the chamber and the additional heating means act together to provide heat to the unit blocks of epilatory wax.
A left atrial appendage occluder, comprising a sealing plate having a fixing member, a fixing frame located on one side of the sealing plate, and a connection member for connecting the sealing plate with the fixing frame, wherein the connection member is of a filament woven structure of disk shape; characterized in that a radial deformability of the sealing plate is greater than that of the fixing frame, as determined by applying two radial acting forces of the same size and in opposite direction to two opposite sides of the fixing frame and the sealing plate, respectively in separate measurements, and/or an axial deformability of the sealing plate is greater than that of the fixing frame, as determined by applying an axial acting force along the central axis of the fixing frame towards the direction of the sealing plate and separately applying the same axial acting force to a fixing member of the sealing plate along the central axis in a direction away from the fixing frame, wherein a peripheral surface of the disk-shaped woven structure of the connection member defines an annular recess, and wherein, in the naturally unfolded state, at least a portion of the connection member extends out of the space encompassed by the fixing frame. located on one side of the sealing plate, and a connection member for connecting the sealing plate with the fixing frame, wherein the connection member is of a filament woven structure of disk shape; characterized in that a radial deformability of the sealing plate is greater than that of the fixing frame, as determined by applying two radial acting forces of the same size and in opposite direction to two opposite sides of the fixing frame and the sealing plate, respectively in separate measurements, and/or an axial deformability of the sealing plate is greater than that of the fixing frame, as determined by applying an axial acting force along the central axis of the fixing frame towards the direction of the sealing plate and separately applying the same axial acting force to a fixing member of the sealing plate along the central axis in a direction away from the fixing frame, wherein a peripheral surface of the disk-shaped woven structure of the connection member defines an annular recess, and wherein, in the naturally unfolded state, at least a portion of the connection member extends out of the space encompassed by the fixing frame.
A method for analysing an electroencephalogram representative of the functional state of the brain of a subject, the brain having a cortex and being subject to cortical and subcortical inputs, the method including the steps of: (i) obtaining electroencephalogram signals from a plurality of electrodes positioned on the subject's scalp; (ii) generating a plurality of EEG segments from the EEG signals; (iii) representing said EEG segments as a fixed-order autoregressive moving average (ARMA) signal representation with an autoregressive order between 8 and 14 and a moving average order between 5 and 11; (iv) generating AR and MA coefficient data of said ARMA signal representation for said EEG segments; (v) generating, based on said AR and MA coefficient data, cortical state data representing the functional state of said cortex at times corresponding to respective EEG segments; (vi) generating cortical input data from said AR and MA coefficient data and said EEG segments representative of the level of cortical and subcortical inputs to said cortex at times corresponding to respective EEG segments; (vii) generating, based on said cortical state data and said cortical input data generated in steps (v) and (vi), display data in the form of a sequence of CS and CI pairs at the same points in time as the corresponding EEG segments; and (viii) displaying said display data on display means. (i) obtaining electroencephalogram signals from a plurality of electrodes positioned on the subject's scalp; (ii) generating a plurality of EEG segments from the EEG signals; (iii) representing said EEG segments as a fixed-order autoregressive moving average (ARMA) signal representation with an autoregressive order between 8 and 14 and a moving average order between 5 and 11; (iv) generating AR and MA coefficient data of said ARMA signal representation for said EEG segments; (v) generating, based on said AR and MA coefficient data, cortical state data representing the functional state of said cortex at times corresponding to respective EEG segments; (vi) generating cortical input data from said AR and MA coefficient data and said EEG segments representative of the level of cortical and subcortical inputs to said cortex at times corresponding to respective EEG segments; (vii) generating, based on said cortical state data and said cortical input data generated in steps (v) and (vi), display data in the form of a sequence of CS and CI pairs at the same points in time as the corresponding EEG segments; and (viii) displaying said display data on display means.
A printed fabric produced by applying, to a fabric, a printing agent comprising a pigment, a pigment dispersant, water, an organic solvent, and a binder resin, the pigment dispersant being a polymer including an anionic group, the polymer having a solubility in water of 0.1 g/100 ml or less, a number-average molecular weight of 1000 to 6000, and an acid value of 40 to 400 mgKOH/g, wherein the polymer is a block polymer constituted by a polymer block including a hydrophobic group and a polymer block including an anionic group.
A method of deep-drawing a tray from fiber-based sheet material comprising the steps of: (i) bringing the sheet material between a female moulding tool, which comprises a cavity for forming the tray bottom outwardly, and a male moulding tool, which comprises a plunger plate for forming the tray bottom inwardly, (ii) clamping the sheet material along the circumference of the female and male moulding tools (3, 4) by clamping means, to hold the material during the deep-drawing step, (iii) moving the plunger plate with respect to the cavity for forming the tray, the method being characterized in that the moulding tools (3, 4) are arranged so that between the cavity bottom and the clamp interface the male moulding tool is laterally distanced from the sheet material, to avoid the surfaces of the male moulding tool becoming to a snug fit with the sheet material and leave free open space inside of the tray side wall being formed, thus allowing free forming of unwrinkled side walls for the produced deep-drawn tray. (i) bringing the sheet material between a female moulding tool, which comprises a cavity for forming the tray bottom outwardly, and a male moulding tool, which comprises a plunger plate for forming the tray bottom inwardly, (ii) clamping the sheet material along the circumference of the female and male moulding tools (3, 4) by clamping means, to hold the material during the deep-drawing step, (iii) moving the plunger plate with respect to the cavity for forming the tray, the method being characterized in that the moulding tools (3, 4) are arranged so that between the cavity bottom and the clamp interface the male moulding tool is laterally distanced from the sheet material, to avoid the surfaces of the male moulding tool becoming to a snug fit with the sheet material and leave free open space inside of the tray side wall being formed, thus allowing free forming of unwrinkled side walls for the produced deep-drawn tray.
A display system (400, 500, 600) comprising a source of unpolarized image light; a stack (410, 510, 610) of polarization-selective optical elements (311, 312, 333) disposed to receive the unpolarized image light and operable to switchably convert the unpolarized image light into two orthogonally polarized light beams; and an output polarizer disposed to receive the two orthogonally polarized light beams and configured to select one of the two orthogonally polarized light beams for forming an image; wherein: the stack comprises one or more Pancharatnam-Berry phase, PBP, optical elements comprising a plurality of PBP lenses (311, 312) of different nominal optical power; at least one of the one or more PBP optical elements is disposed to receive the unpolarized image light; and the stack comprises one or more switchable half-wave plates, HWP. a source of unpolarized image light; a stack (410, 510, 610) of polarization-selective optical elements (311, 312, 333) disposed to receive the unpolarized image light and operable to switchably convert the unpolarized image light into two orthogonally polarized light beams; and an output polarizer disposed to receive the two orthogonally polarized light beams and configured to select one of the two orthogonally polarized light beams for forming an image; wherein: the stack comprises one or more Pancharatnam-Berry phase, PBP, optical elements comprising a plurality of PBP lenses (311, 312) of different nominal optical power; at least one of the one or more PBP optical elements is disposed to receive the unpolarized image light; and the stack comprises one or more switchable half-wave plates, HWP. a plurality of PBP lenses (311, 312) of different nominal optical power; at least one of the one or more PBP optical elements is disposed to receive the unpolarized image light; and the stack comprises one or more switchable half-wave plates, HWP.