mhurhangee/ep-ind-claims huggingface dataset:
An ophthalmic lens comprising an optical substrate and two or more near infrared absorbers mixed in the optical substrate, wherein the two or more near infrared absorbers have different near infrared cut ranges and different residual colors, characterized in that the combination of two or more near infrared absorbers is adapted to generate a synergistic color intensity that is lower than the individual color intensity of each of the two or more near infrared absorbers.
A cell culture device comprising: a disposable culture vessel comprising a casing in which vessel there is situated at least one cell culture zone and at least one cell-free medium transfer zone, allowing a flow of a culture medium between the cell culture zone and the at least one cell-free medium transfer zone; and at least one sensor element of a sensor for measuring at least one culture parameter of said cell culture, wherein the sensor comprises a cell density sensor; said sensor element being situated in said culture vessel on one of the walls delimiting the cell culture zone of the disposable culture vessel and directed toward said cell culture zone; wherein said cell culture zone is a volume within said culture vessel comprising cells in culture, said cells being at least partially isolated from the rest of said culture vessel by impermeable and semi-permeable walls. a disposable culture vessel comprising a casing in which vessel there is situated at least one cell culture zone and at least one cell-free medium transfer zone, allowing a flow of a culture medium between the cell culture zone and the at least one cell-free medium transfer zone; and at least one sensor element of a sensor for measuring at least one culture parameter of said cell culture, wherein the sensor comprises a cell density sensor; said sensor element being situated in said culture vessel on one of the walls delimiting the cell culture zone of the disposable culture vessel and directed toward said cell culture zone; wherein said cell culture zone is a volume within said culture vessel comprising cells in culture, said cells being at least partially isolated from the rest of said culture vessel by impermeable and semi-permeable walls.
A protective undergarment including a pant comprised of: a body having a waistband; an inseam; a seat; and a pair of legs, characterised in that the protective undergarment is made of at least one layer of abrasive resistant fabric that is breathable, light weight and does not substantially shift during an accident when positioned adjacent the wearer's skin, the at least one layer of abrasive resistant fabric made entirely from aramid fibres; the protective undergarment has at least one reinforced area (18, 28) on the protective undergarment pant, said reinforced area (18, 28) comprising at least one additional layer of the same abrasive resistant fabric used throughout the protective undergarment pant; and each of the pair of legs has a reinforced area approximately midway along the length of each leg. a body having a waistband; an inseam; a seat; and a pair of legs, characterised in that the protective undergarment is made of at least one layer of abrasive resistant fabric that is breathable, light weight and does not substantially shift during an accident when positioned adjacent the wearer's skin, the at least one layer of abrasive resistant fabric made entirely from aramid fibres; the protective undergarment has at least one reinforced area (18, 28) on the protective undergarment pant, said reinforced area (18, 28) comprising at least one additional layer of the same abrasive resistant fabric used throughout the protective undergarment pant; and each of the pair of legs has a reinforced area approximately midway along the length of each leg.
An electroporation system for delivering a molecule into cells of a mammal comprising: a) a geometric planar ring electrode with a multiplicity of electrically conductive projections thereon; b) a tissue piercing elongate electrode having a proximal and a distal end, said elongate electrode having a nonconductive portion thereof, said nonconductive portion lying between said proximal end and between about 2.5 and at least 0.1 cm from the distal end, said nonconductive portion comprising either an insulator coating on said elongate electrode or a nonconductive material; c) a housing associated with said ring and elongate electrodes, said housing covering electronic circuitry in electrical communication with said ring and elongate electrodes, wherein the electronic circuitry is configured for providing electric pulses between said ring and elongate electrodes, at least one capacitor in electrical communication with said circuitry, and an actuator for driving said elongate electrode in a linear movement of a travel length between 0.5 and 4 cm; d) a charging unit for charging said capacitor; and e) a computer in electrical communication with said charging unit, said computer comprising software capable of performing programming functions for said system. a) a geometric planar ring electrode with a multiplicity of electrically conductive projections thereon; b) a tissue piercing elongate electrode having a proximal and a distal end, said elongate electrode having a nonconductive portion thereof, said nonconductive portion lying between said proximal end and between about 2.5 and at least 0.1 cm from the distal end, said nonconductive portion comprising either an insulator coating on said elongate electrode or a nonconductive material; c) a housing associated with said ring and elongate electrodes, said housing covering electronic circuitry in electrical communication with said ring and elongate electrodes, wherein the electronic circuitry is configured for providing electric pulses between said ring and elongate electrodes, at least one capacitor in electrical communication with said circuitry, and an actuator for driving said elongate electrode in a linear movement of a travel length between 0.5 and 4 cm; d) a charging unit for charging said capacitor; and e) a computer in electrical communication with said charging unit, said computer comprising software capable of performing programming functions for said system.
Tube holder for a tube filling machine, comprising a housing which has an upwardly opening tube receptacle into which an end region of a tube can be inserted, a plurality of clamping elements being arranged in the tube receptacle, the clamping surface of each of which clamping elements can be brought into contact with an outer wall of the tube and by means of which clamping elements a clamping force acting radially from the outside on the inserted tube can be applied under the action of at least one spring element, the clamping elements each being mounted in a pivot bearing so as to be pivotable about a horizontally extending pivot axis and the clamping elements being arranged so as to be distributed over the circumference of the tube receptacle and forming a first group of clamping elements, characterized in that further clamping elements are arranged at an axial distance below the first group of clamping elements, which further clamping elements are arranged so as to be distributed over the circumference of the tube receptacle and a form a second group of further clamping elements and a clamping surface of each of which further clamping elements can be brought into contact with the outer wall of the tube and by means of which clamping elements a clamping force acting radially from the outside on the inserted tube can be applied under the action of the spring element and/or at least one further spring element, the further clamping elements each being mounted in a pivot bearing so as to be pivotable about a horizontally extending pivot axis, the clamping surface of the clamping elements and the further clamping elements having, at least in portions, a contour that is convex in the direction of a longitudinal central axis L of the tube receptacle and curved about a horizontal axis.
A method, performed by a network node, for forming a cell coordination group in a telecommunication network, whereby the group comprises cells which cooperate for reducing the inherent interference that appear between the cells, the method comprising: obtaining, for a serving cell, a neighbor cell list indicative of neighbor cells (420A, 430A, 440A) of the serving cell; determining the most likely handover cell candidates based on the neighboring cell list and handover statistics stored in the serving cell; selecting (504, 702) a user equipment connected to the serving cell, wherein the selection of the user equipment is based on service performance provided by the serving cell to the user equipment; estimating (506, 508, 704) downlink interference of the user equipment for the neighbor cells (420A, 430A, 440A) or a path loss of the user equipment for each neighbor cell, wherein the estimation is performed in cell priority order based on the handover statistics stored in the serving cell; and grouping the serving cell with selected neighboring cells to form a cell coordination group (410A, 420A), wherein the selected neighboring cells (410A, 420A) are selected based on the estimated downlink interference and/or the path loss, and wherein the selected neighboring cells (410A, 420A) are selected based on how likely a user terminal from the serving cell is handed over to the selected neighboring cells (410A, 420A). obtaining, for a serving cell, a neighbor cell list indicative of neighbor cells (420A, 430A, 440A) of the serving cell; determining the most likely handover cell candidates based on the neighboring cell list and handover statistics stored in the serving cell; selecting (504, 702) a user equipment connected to the serving cell, wherein the selection of the user equipment is based on service performance provided by the serving cell to the user equipment; estimating (506, 508, 704) downlink interference of the user equipment for the neighbor cells (420A, 430A, 440A) or a path loss of the user equipment for each neighbor cell, wherein the estimation is performed in cell priority order based on the handover statistics stored in the serving cell; and grouping the serving cell with selected neighboring cells to form a cell coordination group (410A, 420A), wherein the selected neighboring cells (410A, 420A) are selected based on the estimated downlink interference and/or the path loss, and wherein the selected neighboring cells (410A, 420A) are selected based on how likely a user terminal from the serving cell is handed over to the selected neighboring cells (410A, 420A).
A method (700, 1400) of calibrating a magnetometer on a mobile device, the method comprising: obtaining (702, 1402) one or more pairs of magnetometer readings, each pair including a first reading and a successive second reading; for each pair of magnetometer readings: determining (704, 1404) from a rotational sensor (24, 27) a rotation axis direction and a rotation angle (θ) corresponding to a change in orientation of the mobile device between obtaining the first reading and the second reading; and determining (706, 1406) a rotation axis for the pair of magnetometer readings using the rotation axis direction and rotation angle; and determining (710,1412) a calibration parameter based on at least one property of one or more of the rotation axes. obtaining (702, 1402) one or more pairs of magnetometer readings, each pair including a first reading and a successive second reading; for each pair of magnetometer readings: determining (704, 1404) from a rotational sensor (24, 27) a rotation axis direction and a rotation angle (θ) corresponding to a change in orientation of the mobile device between obtaining the first reading and the second reading; and determining (706, 1406) a rotation axis for the pair of magnetometer readings using the rotation axis direction and rotation angle; and determining (704, 1404) from a rotational sensor (24, 27) a rotation axis direction and a rotation angle (θ) corresponding to a change in orientation of the mobile device between obtaining the first reading and the second reading; and determining (706, 1406) a rotation axis for the pair of magnetometer readings using the rotation axis direction and rotation angle; and determining (710,1412) a calibration parameter based on at least one property of one or more of the rotation axes.
A method for producing an hydrophilic gauze comprising the following steps: - providing a gauze; - during the same step, treating one or more areas of the gauze with a mixture formed of fluorescent UV-sensitive inks, with the addition of transparent silicone, in order to make said one or more areas of the gauze impermeable to blood. - providing a gauze; - during the same step, treating one or more areas of the gauze with a mixture formed of fluorescent UV-sensitive inks, with the addition of transparent silicone, in order to make said one or more areas of the gauze impermeable to blood.
A single phase acetylated castor wax (SP-ACW) having less than 0.2 wt % insoluble components based on the total weight of the SP-ACW after exposure to 15°C for at least one week, wherein (i) the SP-ACW has an iodine number determined in accordance with German Einheitsmethode DGF C-V 11a of 0 to less than 40 I 2 /100g, a hydroxyl number determined in accordance with DIN 53402 from 0 to less than 15 and a turbidity determined according to the method of the description from 1 NTU to 50 NTU, and wherein the amount of insoluble component present is determined by filtering at 15 -25°C over 11μm filter paper.
A control apparatus for an automatic transmission adapted to achieve a plurality of transmission ratios by changing an engagement state of friction element (C1-C3, B1-B4) in order to transmit torque from a drive source to a drive wheel, the control apparatus comprising: a shift-pressure learning correction controlling section configured to perform a shift-pressure learning correction in which a physical quantity representing a progress of shift is measured during a current downshift, and in which an engagement command pressure for the friction element is corrected during a next downshift on the basis of a divergence between the measured physical quantity and a target physical quantity; a shift-torque increase controlling section configured to perform a torque increase control in which a command for temporarily increasing torque of the drive source starts to be outputted when a start estimation timing of torque phase that is preset by a time management has just come during a shift transition period given between a shift start and a shift end of the downshift; and a learning convergence judging section configured to judges whether or not the shift-pressure learning correction performed by the shift-pressure learning correction controlling section has converged, to prohibit the torque increase control until it is decided that the shift-pressure learning correction has converged, and to permit the torque increase control when it is decided that the shift-pressure learning correction has converged. a shift-pressure learning correction controlling section configured to perform a shift-pressure learning correction in which a physical quantity representing a progress of shift is measured during a current downshift, and in which an engagement command pressure for the friction element is corrected during a next downshift on the basis of a divergence between the measured physical quantity and a target physical quantity; a shift-torque increase controlling section configured to perform a torque increase control in which a command for temporarily increasing torque of the drive source starts to be outputted when a start estimation timing of torque phase that is preset by a time management has just come during a shift transition period given between a shift start and a shift end of the downshift; and a learning convergence judging section configured to judges whether or not the shift-pressure learning correction performed by the shift-pressure learning correction controlling section has converged, to prohibit the torque increase control until it is decided that the shift-pressure learning correction has converged, and to permit the torque increase control when it is decided that the shift-pressure learning correction has converged.
A formed material manufacturing method for manufacturing a formed material having a tubular trunk portion and a flange portion formed on an end portion of the trunk portion, by performing at least two forming processes on a raw material metal plate, wherein the at least two forming processes include at least one drawing-out process and at least one drawing process performed after the drawing-out process, wherein the drawing-out process is performed using a mold that includes a punch and a die having a pushing hole, a width (w 311) of a rear end side of the punch is set to be wider than a width (w 310) of a tip end side thereof so that a clearance (c 30-31) between the die and the punch when the punch is pushed into the pushing hole in the die is narrower on the rear end side than on the tip end side, and ironing is performed on a region of the raw material metal plate corresponding to the flange portion by pushing the raw material metal plate into the pushing hole together with the punch during the drawing-out process, and wherein a width variation portion constituted by an inclined surface on which a width of the punch varies continuously is provided between the tip end side and the rear end side of the punch, characterized in that the width variation portion is disposed in contact with a region corresponding to a shoulder portion (Rd) formed between a peripheral wall of the trunk portion and the flange portion.
A display device, comprising a display screen and an optical fingerprint module, the display screen comprising a light-shielding panel and a display panel, the light-shielding panel and the optical fingerprint module being located at a back side of the display panel, the light-shielding panel being provided with a hollow-out groove, the optical fingerprint module being fastened to the hollow-out groove, the display panel being configured to be superposed on a side of the light-shielding panel towards a user, a side of the display panel towards the light-shielding panel being provided with an ink layer, an orthographic projection area of the ink layer on the light-shielding panel coinciding with the hollow-out groove, and chromaticity of the ink layer being consistent with chromaticity of a side of the light-shielding panel towards the display panel; wherein the light-shielding panel comprises a first surface towards the display panel and a second surface opposite the first surface, the hollow-out groove runs through from the first surface to the second surface, wherein the ink layer is provided with a plurality of tiny holes, and the plurality of tiny holes are configured so that light of the optical fingerprint module can be transmitted; wherein the plurality of tiny holes includes a first tiny hole and a second tiny hole, the first tiny hole is configured so that the light emitted by the optical fingerprint module can be transmitted outside, and the second tiny hole is configured so that the light reflected from the outside can be transmitted towards the optical fingerprint module.
An ingot comprising an alloy, the alloy comprising from 5 wt.% to 35 wt.% of niobium, from 0.5 wt.% to 3.5 wt.% of silicon and from 61.5 wt.% to 94.5 wt.% of titanium as the balance, the alloy having no more than 2 wt.% of nitrogen, no more than 2 wt.% of oxygen, and no more than 2 wt.% of carbon, the alloy having a hexagonal crystal lattice α phase of from 20 vol. % to 70 vol. %, and a cubic body centered β crystal lattice phase of from 30 vol.% to 80 vol.%, the ingot having an ultimate tensile strength of 940 MPa or more, and a Young's modulus of 150 GPa or less, and within the solid solution of the metals including a glassy silicon ceramic.
A polyethylene composition having the following features: 1) density from 0.940 to 0.955 g/cm 3, preferably from 0.940 to 0.951 g/cm 3, determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from 12 to 30, in particular from 15 to 28 or from 17 to 27, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) Mz from 2,000,000 to 4,500,000 g/mol, preferably from 2,500,000 to 4,200,000 g/mol, in particular from 2,500,000 to 3,500,000 g/mol, where Mz is the z-average molecular weight, measured by GPC; 4) η 0.02 from 160,000 to 300,000 Pa.s, or from 170,000 to 300,000 Pa.s, or from 180,000 to 300,000 Pa.s, preferably from 160,000 to 250,000 Pa.s., or from 170,000 to 250,000 Pa.s, or from 180,000 to 250,000 Pa.s, wherein η 0.02 is the complex shear viscosity at an angular frequency of 0.02 rad/s, measured with dynamic oscillatory shear in a plate-plate rotational rheometer at a temperature of 190°C; 5) long-chain branching index, LCBI, equal to or greater than 0.75, preferably equal to or greater than 0.80, wherein LCBI is the ratio of the measured mean-square radius of gyration R g, measured by GPC-MALLS, to the mean-square radius of gyration for a linear PE having the same molecular weight. 1) density from 0.940 to 0.955 g/cm 3, preferably from 0.940 to 0.951 g/cm 3, determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from 12 to 30, in particular from 15 to 28 or from 17 to 27, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) Mz from 2,000,000 to 4,500,000 g/mol, preferably from 2,500,000 to 4,200,000 g/mol, in particular from 2,500,000 to 3,500,000 g/mol, where Mz is the z-average molecular weight, measured by GPC; 4) η 0.02 from 160,000 to 300,000 Pa.s, or from 170,000 to 300,000 Pa.s, or from 180,000 to 300,000 Pa.s, preferably from 160,000 to 250,000 Pa.s., or from 170,000 to 250,000 Pa.s, or from 180,000 to 250,000 Pa.s, wherein η 0.02 is the complex shear viscosity at an angular frequency of 0.02 rad/s, measured with dynamic oscillatory shear in a plate-plate rotational rheometer at a temperature of 190°C; 5) long-chain branching index, LCBI, equal to or greater than 0.75, preferably equal to or greater than 0.80, wherein LCBI is the ratio of the measured mean-square radius of gyration R g, measured by GPC-MALLS, to the mean-square radius of gyration for a linear PE having the same molecular weight.