mhurhangee/ep-ind-claims huggingface dataset:
A process of conducting high throughput HPLC comprising: a) dropping containers of pre-weighed samples into plastic bottles; b) adding solution to each set of container and bottle via a bottle top dispenser; c) shaking each set of plastic bottle, container, and solution until sample is dissolved; d) centrifuging each set of plastic bottle, container, and solution; e) loading an aliquot of supernatant from the centrifuge step onto an HPLC column; and f) running the column with a mobile phase. a) dropping containers of pre-weighed samples into plastic bottles; b) adding solution to each set of container and bottle via a bottle top dispenser; c) shaking each set of plastic bottle, container, and solution until sample is dissolved; d) centrifuging each set of plastic bottle, container, and solution; e) loading an aliquot of supernatant from the centrifuge step onto an HPLC column; and f) running the column with a mobile phase.
Optical resonator system, comprising: a multi-strip waveguide structure having a plurality of spaced semiconductor strips (122-#) for guiding an IR radiation (R IR), a STP resonance structure (STP = slab tamm-plasmon-polariton), wherein the STP resonance structure is implemented as a Bragg mirror structure laterally extending in the system plane, and wherein the STP resonance structure comprises an alternating arrangement of semiconductor strips (142-#) and interjacent dielectric strips (144-#) and comprises a metal strip adjacent to the semiconductor strip at a boundary region of the STP resonance structure, wherein the metal strip and the adjacent semiconductor strip are arranged to provide a metal-semiconductor interface (146-A) at the boundary region of the STP resonance structure, and wherein the semiconductor strips (122-#) of the multi-strip waveguide structure and the semiconductor strips (142-#) of the STP resonance structure are arranged perpendicular to each other in a common system plane (180-A), and an optical coupling structure having a semiconductor layer, wherein the semiconductor layer is arranged between the multi-strip waveguide structure and the STP resonance structure for optically coupling the IR radiation (R IR) between the multi-strip waveguide structure and the STP resonance structure. a multi-strip waveguide structure having a plurality of spaced semiconductor strips (122-#) for guiding an IR radiation (R IR), a STP resonance structure (STP = slab tamm-plasmon-polariton), wherein the STP resonance structure is implemented as a Bragg mirror structure laterally extending in the system plane, and wherein the STP resonance structure comprises an alternating arrangement of semiconductor strips (142-#) and interjacent dielectric strips (144-#) and comprises a metal strip adjacent to the semiconductor strip at a boundary region of the STP resonance structure, wherein the metal strip and the adjacent semiconductor strip are arranged to provide a metal-semiconductor interface (146-A) at the boundary region of the STP resonance structure, and wherein the semiconductor strips (122-#) of the multi-strip waveguide structure and the semiconductor strips (142-#) of the STP resonance structure are arranged perpendicular to each other in a common system plane (180-A), and wherein the metal strip and the adjacent semiconductor strip are arranged to provide a metal-semiconductor interface (146-A) at the boundary region of the STP resonance structure, and wherein the semiconductor strips (122-#) of the multi-strip waveguide structure and the semiconductor strips (142-#) of the STP resonance structure are arranged perpendicular to each other in a common system plane (180-A), and an optical coupling structure having a semiconductor layer, wherein the semiconductor layer is arranged between the multi-strip waveguide structure and the STP resonance structure for optically coupling the IR radiation (R IR) between the multi-strip waveguide structure and the STP resonance structure.
A toner having a toner particle that has a binder resin and a release agent, wherein when a temperature when G' = 1.0 × 10 5 Pa in a dynamic viscoelastic measurement on the toner is denoted by Ta, measured as indicated in the description, and a glass transition temperature in a differential scanning calorimetric measurement on the toner, measured as indicated in the description, is denoted by Tg, the Ta and the Tg satisfy the following formulas: 40 ° C ≤ Tg ≤ 70 ° C, 60 ° C ≤ Ta ≤ 90 ° C, and 0 ° C ≤ Ta − Tg ≤ 35 ° C; and the toner has a storage elastic modulus G' having a minimum value in a range from 110°C to 150°C in a dynamic viscoelastic measurement on the toner, wherein the dynamic viscoelastic properties are measured using a rotational plate rheometer at an oscillation frequency of 1.0 Hz (6.28 rad/s) and a ramp rate of 2.0°C/minute in temperature sweep mode in a temperature range from 50°C to 160°C, as measured as indicated in the description, wherein the toner particle has a surface layer that contains an organosilicon polymer. when a temperature when G' = 1.0 × 10 5 Pa in a dynamic viscoelastic measurement on the toner is denoted by Ta, measured as indicated in the description, and a glass transition temperature in a differential scanning calorimetric measurement on the toner, measured as indicated in the description, is denoted by Tg, the Ta and the Tg satisfy the following formulas: 40 ° C ≤ Tg ≤ 70 ° C, 60 ° C ≤ Ta ≤ 90 ° C, and 0 ° C ≤ Ta − Tg ≤ 35 ° C; and the toner has a storage elastic modulus G' having a minimum value in a range from 110°C to 150°C in a dynamic viscoelastic measurement on the toner, wherein the dynamic viscoelastic properties are measured using a rotational plate rheometer at an oscillation frequency of 1.0 Hz (6.28 rad/s) and a ramp rate of 2.0°C/minute in temperature sweep mode in a temperature range from 50°C to 160°C, as measured as indicated in the description, wherein the toner particle has a surface layer that contains an organosilicon polymer.
A low density surface coating paste for plaster, including a silicate aerogel base, characterized in that it comprises, in percentage by weight: - a mixture of aerogel with two components from 1 to 50%, including: - silicate aerogel, derived from gel obtained from a process to dry wet silica, from 1 to 38%; - aerogel derived from by-products of rice processing, from 1 to 80%; - binders from 1 to 30%; - ground cork from 1 to 15%; - inert fillers from 0.1 to 10%; - water, residual percentage. - a mixture of aerogel with two components from 1 to 50%, including: - silicate aerogel, derived from gel obtained from a process to dry wet silica, from 1 to 38%; - aerogel derived from by-products of rice processing, from 1 to 80%; - silicate aerogel, derived from gel obtained from a process to dry wet silica, from 1 to 38%; - aerogel derived from by-products of rice processing, from 1 to 80%; - binders from 1 to 30%; - ground cork from 1 to 15%; - inert fillers from 0.1 to 10%; - water, residual percentage.
A charging station configured for charging a battery of an electric or hybrid powered vehicle comprising: a main body having a base portion positioned in the ground and a charging portion, the charging portion comprises an electrical outlet for connection to the vehicle; lifting means configured for moving the charging portion between a first position in which the charging portion is located in the base portion and a second position in which the charging portion is in a raised location out of the base portion and above the ground; a lifting controller configured to activate the lifting means to move the charging portion between the first position and second position, characterised in that the charging station comprises a control panel configured to provide user operated control via a user interface to facilitate access to and use of the charging station, and the lifting controller of the charging station is, in response to signals from the control panel, configured to activate the lifting means to move the charging portion of the charging station from the first position to the second position fully above the ground to provide access to the electrical outlet, and from the second position to the first position and to activate the charging station to charge the vehicle when the charging portion is in the first position within the base portion. a main body having a base portion positioned in the ground and a charging portion, the charging portion comprises an electrical outlet for connection to the vehicle; lifting means configured for moving the charging portion between a first position in which the charging portion is located in the base portion and a second position in which the charging portion is in a raised location out of the base portion and above the ground; a lifting controller configured to activate the lifting means to move the charging portion between the first position and second position, characterised in that the charging station comprises a control panel configured to provide user operated control via a user interface to facilitate access to and use of the charging station, and the lifting controller of the charging station is, in response to signals from the control panel, configured to activate the lifting means to move the charging portion of the charging station from the first position to the second position fully above the ground to provide access to the electrical outlet, and from the second position to the first position and to activate the charging station to charge the vehicle when the charging portion is in the first position within the base portion.
A mounting inspection device, comprising: missing component inspection means for performing missing component inspection of components mounted on a printed circuit board; and foreign object inspection means for performing foreign object inspection in which foreign objects on a printed circuit board are inspected with regard to a printed circuit board on which a missing component is detected, based on results of the missing component inspection carried out by the missing component inspection means, characterized in that the foreign object inspection means is configured to acquire missing component position information which is information relating to a position in which the missing component is detected in the printed circuit board, and is configured to perform the foreign object inspection by starting on a periphery of the position which is specified by the missing component position information in the printed circuit board. missing component inspection means for performing missing component inspection of components mounted on a printed circuit board; and foreign object inspection means for performing foreign object inspection in which foreign objects on a printed circuit board are inspected with regard to a printed circuit board on which a missing component is detected, based on results of the missing component inspection carried out by the missing component inspection means, characterized in that the foreign object inspection means is configured to acquire missing component position information which is information relating to a position in which the missing component is detected in the printed circuit board, and is configured to perform the foreign object inspection by starting on a periphery of the position which is specified by the missing component position information in the printed circuit board.
An amphibious personal watercraft vehicle comprising: a sit-astride seat, a planing hull, at least four wheels (50, 51, 52, 53), each of which is movable between an extended land mode location and a retracted water mode location, two of the wheels being front steerable wheels (50, 53) which are, at least in the land mode of the vehicle, connected to a steering control which can be operated by a driver to steer the vehicle, an engine which in the land mode of the vehicle is connected to at least one of the wheels to drive the wheel, and marine propulsion means to propel the vehicle on water, wherein: a portion of each of the four wheels (50, 51, 52, 53), when in the retracted water mode location, extends beyond the maximum beam width of the hull. a sit-astride seat, a planing hull, at least four wheels (50, 51, 52, 53), each of which is movable between an extended land mode location and a retracted water mode location, two of the wheels being front steerable wheels (50, 53) which are, at least in the land mode of the vehicle, connected to a steering control which can be operated by a driver to steer the vehicle, an engine which in the land mode of the vehicle is connected to at least one of the wheels to drive the wheel, and marine propulsion means to propel the vehicle on water, wherein: a portion of each of the four wheels (50, 51, 52, 53), when in the retracted water mode location, extends beyond the maximum beam width of the hull. a portion of each of the four wheels (50, 51, 52, 53), when in the retracted water mode location, extends beyond the maximum beam width of the hull.
A switch for a marine seismic sensor, the switch comprising: a bellows having a closed end, a closed side portion and an open end, wherein the side portion connects the closed end to the open end, the closed end includes a conductive surface, and the side portion is configured to act as a spring; a base plug captured in the bellows, said base plug including first input and first output contacts (24, 26) on a first side and second input and second output contacts (30, 34) on an opposite side facing said conductive surface, wherein the first input contact is electrically connected to the second input contact through a first jumper and the first output contact is electrically connected to the second output contact through a second jumper; and a seal plug located in the open end of the bellows in contact with the base plug and configured to form a sealed chamber inside which the second input contact and the second output contact are located, wherein the sealed chamber is formed by the bellows and the base plug, wherein the conductive surface is configured to short-circuit the second input contact and the second output contact when a pressure larger than a predetermined pressure acts on the conductive surface. a bellows having a closed end, a closed side portion and an open end, wherein the side portion connects the closed end to the open end, the closed end includes a conductive surface, and the side portion is configured to act as a spring; a base plug captured in the bellows, said base plug including first input and first output contacts (24, 26) on a first side and second input and second output contacts (30, 34) on an opposite side facing said conductive surface, wherein the first input contact is electrically connected to the second input contact through a first jumper and the first output contact is electrically connected to the second output contact through a second jumper; and a seal plug located in the open end of the bellows in contact with the base plug and configured to form a sealed chamber inside which the second input contact and the second output contact are located, wherein the sealed chamber is formed by the bellows and the base plug, wherein the conductive surface is configured to short-circuit the second input contact and the second output contact when a pressure larger than a predetermined pressure acts on the conductive surface.
A carton for cut sheets of paper, wherein said carton comprises: a bottom wall (12, 191), opposite side walls (13, 14), and opposite end walls (15, 16); a wheel assembly (30, 30') mounted to said carton bottom wall (12, 191), said wheel assembly (30, 30') including a roller support platform (32, 32') and a plurality of roller means projecting downwardly from said carton bottom wall (12, 191) to support said carton above a supporting surface and enable said carton to be easily moved along said supporting surface on said rollers; said carton bottom wall (12, 191) comprises said carton bottom wall (12,191) having a plurality of cutouts therein; said rollers project downwardly through said cutouts in said carton bottom wall (12, 191); said wheel assembly is above said carton bottom wall (12, 191); characterized in that at least one tow strap (31, 43) connected to said carton to enable a person to pull said carton along said supporting surface, said at least one tow strap (31, 43) having a stowed position in said carton and an extended position with one end of said at least one tow strap extended outside said carton, wherein said platform has recess means formed in one surface thereof and said at least one tow strap (41, 43) is received in that recess means and attached at an inner end thereof to that platform; and said roller support platform (32, 32') is positioned on top of said carton bottom wall (12, 191), said roller support platform (32, 32') having cutouts in which said rollers are received and supported; said cutouts in said roller support platform (32, 32') extend through said roller support platform (32, 32') from a top surface through a bottom surface thereof; short, rigid, roller support cylinders are glued in said cutouts in said roller support platform (32, 32'), said roller support cylinders having an upper end substantially flush with said top surface of said roller support platform (32, 32'), and a lower end substantially flush with said lower surface of said roller support platform (32, 32'); said rollers are mounted in and supported by said roller support cylinders; two notches are formed in said lower end of each said roller support cylinder, said notches being disposed on diametrically opposite sides of respective ones of said roller support cylinders; and an axle projects from each of two diametrically opposite sides of each said roller, said axles being rotatably supported in respective said notches.
A cell population enriched for anterior foregut endoderm cells and depleted of mid- and posterior endoderm signals wherein the anterior foregut endoderm cells express FOXA2 and comprise an elevated level of SOX2 expression and a reduced level of CDX2 expression compared to expression of SOX2 and CDX2 in definitive endoderm cells, wherein the cell population comprises at least 25% anterior foregut endoderm cells.
A method for determining an issue in an inkjet nozzle, the method comprising: providing an initial fire pulse for firing a nozzle; the method characterised in that it further comprises: receiving the initial fire pulse as a delayed fire pulse at a primitive (103; 306, 308, 310, 312) of the nozzle; firing the nozzle with the delayed fire pulse; and determining, based on the delayed fire pulse, a first time instant following the delayed fire pulse for taking a first impedance measurement associated with the nozzle. receiving the initial fire pulse as a delayed fire pulse at a primitive (103; 306, 308, 310, 312) of the nozzle; firing the nozzle with the delayed fire pulse; and determining, based on the delayed fire pulse, a first time instant following the delayed fire pulse for taking a first impedance measurement associated with the nozzle.
A chimeric peptide comprising a first domain and a second domain linked by a covalent bond, the first domain comprising a trafficking sequence directing the chimeric peptide across the plasma membrane and/or to a desired cellular location, and the second domain comprising a JNK inhibitor sequence, wherein the JNK inhibitor peptide is equal or less than 25 amino acids in length and comprises SEQ ID NO: 1, 3, 5 or 6 or homologues thereof having at least 80% identity to SEQ ID NO: 1, 3, 5 or 6.
A system for replacing a native heart valve, the system comprising: an expansible helical anchor formed as multiple coils adapted to support a heart valve prosthesis, at least one of the coils normally being at a first diameter, and being expandable to a second, larger diameter upon application of radial outward force from within the helical anchor; an expansible heart valve prosthesis capable of being delivered into the helical anchor and expanded inside the multiple coils into engagement with the at least one coil to move the at least one coil from the first diameter to the second diameter while securing the helical anchor and the heart valve prosthesis together, wherein the expansible heart valve prosthesis includes a blood inflow end and a blood outflow end, characterized in that the system further comprises: a sealing layer (84, 90) covering an outflow portion of the expansible heart valve prosthesis configured to engage the helical anchor and prevent blood leakage past the heart valve prosthesis after implantation of the heart valve prosthesis in the helical anchor, and an internal layer added to an annular edge of the blood outflow end of the expansible heart valve prosthesis, wherein the internal layer is covered by the sealing layer (84, 90) to form a bumper for preventing damage to tissue structure in the heart after implantation. an expansible helical anchor formed as multiple coils adapted to support a heart valve prosthesis, at least one of the coils normally being at a first diameter, and being expandable to a second, larger diameter upon application of radial outward force from within the helical anchor; an expansible heart valve prosthesis capable of being delivered into the helical anchor and expanded inside the multiple coils into engagement with the at least one coil to move the at least one coil from the first diameter to the second diameter while securing the helical anchor and the heart valve prosthesis together, wherein the expansible heart valve prosthesis includes a blood inflow end and a blood outflow end, characterized in that the system further comprises: a sealing layer (84, 90) covering an outflow portion of the expansible heart valve prosthesis configured to engage the helical anchor and prevent blood leakage past the heart valve prosthesis after implantation of the heart valve prosthesis in the helical anchor, and an internal layer added to an annular edge of the blood outflow end of the expansible heart valve prosthesis, wherein the internal layer is covered by the sealing layer (84, 90) to form a bumper for preventing damage to tissue structure in the heart after implantation. a sealing layer (84, 90) covering an outflow portion of the expansible heart valve prosthesis configured to engage the helical anchor and prevent blood leakage past the heart valve prosthesis after implantation of the heart valve prosthesis in the helical anchor, and an internal layer added to an annular edge of the blood outflow end of the expansible heart valve prosthesis, wherein the internal layer is covered by the sealing layer (84, 90) to form a bumper for preventing damage to tissue structure in the heart after implantation.
A neck finish for carbonated beverage bottles, wherein the neck finish comprises a diameter ( d) of less than or about 25 mm, from 2 to 20 vent slots (inclusive) aligned in the counter-clockwise direction (top view), a parting line bisecting the vent slot radially, a first angle defining the leading edge of a vent slot relative to the parting line, and a second angle defining the trailing edge of a vent slot relative to the parting line, wherein the first angle is less than, equal to or greater than the second angle, and characterised in that the T dimension of the neck finish, measured as defined in a standard 28 mm PCO 1881 finish, minus the E dimension of the neck finish, measured as defined in the standard 28 mm PCO 1881 finish (the T-E dimension of the neck finish) is modified by +5% to +20% from a theoretical T-E dimension of a standard 28 mm PCO 1881 finish that is proportionally scaled down by a factor of d/28, wherein d is the diameter (mm) of the neck finish of less than or about 25 mm.