mhurhangee/ep-ind-claims huggingface dataset:
A storage system for storing food items in a temperature-controlled environment, the storage system comprising: a bin; a tab attached to the bin, wherein the tab is configured to couple the bin to a track and guide the bin along a continuum of vertical positions on the track; an actuator attached to the bin, wherein the actuator is selectively movable between a first position and a second position; and a pin slidingly engaged with the bin, wherein the actuator contacts the pin and holds the pin in an engaged position when the actuator is in the first position, wherein the bin is movable into a plurality of positions relative to the track and characterized in that the pin in the engaged position is configured to prevent vertical movement of the bin at any point within the continuum of positions on the track. a bin; a tab attached to the bin, wherein the tab is configured to couple the bin to a track and guide the bin along a continuum of vertical positions on the track; an actuator attached to the bin, wherein the actuator is selectively movable between a first position and a second position; and a pin slidingly engaged with the bin, wherein the actuator contacts the pin and holds the pin in an engaged position when the actuator is in the first position, wherein the bin is movable into a plurality of positions relative to the track and characterized in that the pin in the engaged position is configured to prevent vertical movement of the bin at any point within the continuum of positions on the track.
A method of cementing in a subterranean formation, comprising: providing a set-delayed cement composition comprising water, pumice, hydrated lime, a dispersant, and a set retarder; wherein the dispersant comprises a polycarboxylated ether dispersant and the set retarder comprises a phosphonic acid derivative; activating the set-delayed cement composition; introducing the set-delayed cement composition into a subterranean formation; and allowing the set-delayed cement composition to set in the subterranean formation. providing a set-delayed cement composition comprising water, pumice, hydrated lime, a dispersant, and a set retarder; wherein the dispersant comprises a polycarboxylated ether dispersant and the set retarder comprises a phosphonic acid derivative; activating the set-delayed cement composition; introducing the set-delayed cement composition into a subterranean formation; and allowing the set-delayed cement composition to set in the subterranean formation.
A protein food product comprising Vicia faba and pea protein wherein the total protein content is in the range of from 45 weight% to 55 weight% and the Vicia faba:pea protein ratio is in the range of from 1.1 to 1.8.
A receive end of a wireless charging system, comprising a receive coil (Cr), a rectifier, and a receive end controller, wherein the receive coil is configured to receive an alternating magnetic field and output an alternating current: the rectifier is configured to rectify the alternating current from the receive coil into a direct current; and the receive end controller is configured to adjust, based on a target impedance sent by a transmit end controller, a reflection impedance reflected from the receive end to the transmit end, so that an inverter of the transmit end implements zero voltage switching; and a bridge arm voltage is a voltage between two bridge arm midpoints of a full bridge rectifier or a voltage between a single bridge arm midpoint of a half bridge rectifier and ground; wherein the rectifier is a full bridge rectifier comprising at least two controllable switching transistors or a half bridge rectifier comprising two controllable switching transistors; the receive end controller is specifically configured to obtain a corresponding target input impedance of the rectifier based on the target impedance; and obtain an equivalent input impedance of the rectifier, compare the corresponding target input impedance of the rectifier with the equivalent input impedance, and adjust a phase difference between an input current and a bridge arm voltage of the rectifier based on a comparison result so that the reflection impedance is consistent with the target impedance. the rectifier is configured to rectify the alternating current from the receive coil into a direct current; and the receive end controller is configured to adjust, based on a target impedance sent by a transmit end controller, a reflection impedance reflected from the receive end to the transmit end, so that an inverter of the transmit end implements zero voltage switching; and a bridge arm voltage is a voltage between two bridge arm midpoints of a full bridge rectifier or a voltage between a single bridge arm midpoint of a half bridge rectifier and ground; wherein the rectifier is a full bridge rectifier comprising at least two controllable switching transistors or a half bridge rectifier comprising two controllable switching transistors; the receive end controller is specifically configured to obtain a corresponding target input impedance of the rectifier based on the target impedance; and obtain an equivalent input impedance of the rectifier, compare the corresponding target input impedance of the rectifier with the equivalent input impedance, and adjust a phase difference between an input current and a bridge arm voltage of the rectifier based on a comparison result so that the reflection impedance is consistent with the target impedance.
A turbine component comprising: a root; and an airfoil extending from the root to a tip opposite the root, the airfoil forming a leading edge and a trailing edge portion extending to a trailing edge; wherein a plurality of nested cooling channels in the trailing edge portion of the airfoil permit passage of a cooling fluid from an interior of the turbine component to an exterior of the turbine component at the trailing edge portion, the plurality of nested cooling channels being fluidly isolated from each other; characterised in that the turbine component comprises a first section and a second section, the first section and the second section being formed by metal three-dimensional printing, the first section including a suction side having a convex outer surface and the second section including a pressure side having a concave outer surface, with at least a portion of the nested cooling channels being formed at one or both of the surfaces of the first and second sections (44, 46). a root; and an airfoil extending from the root to a tip opposite the root, the airfoil forming a leading edge and a trailing edge portion extending to a trailing edge; wherein a plurality of nested cooling channels in the trailing edge portion of the airfoil permit passage of a cooling fluid from an interior of the turbine component to an exterior of the turbine component at the trailing edge portion, the plurality of nested cooling channels being fluidly isolated from each other; characterised in that the turbine component comprises a first section and a second section, the first section and the second section being formed by metal three-dimensional printing, the first section including a suction side having a convex outer surface and the second section including a pressure side having a concave outer surface, with at least a portion of the nested cooling channels being formed at one or both of the surfaces of the first and second sections (44, 46).
An agricultural implement for sensing or acquiring soil comprising: a vehicle; a sampling implement supported by the vehicle for sensing or acquiring soil, wherein the sampling implement comprises: a soil probe having a plurality of notches; a location system for determining a position in a field; a memory storing a map, wherein the map defines locations for the sampling implement to sense a characteristic of soil or acquire a soil sample at each of the locations; a controller, wherein the controller is configured to send a signal to the sampling implement to sense or acquire the soil, when the vehicle reaches each of the locations as the vehicle traverses the field; and characterized in that the sampling implement further comprises a rod having a plurality of scooper discs and configured to scoop soil from the notches through an actuator. a vehicle; a sampling implement supported by the vehicle for sensing or acquiring soil, wherein the sampling implement comprises: a soil probe having a plurality of notches; a location system for determining a position in a field; a memory storing a map, wherein the map defines locations for the sampling implement to sense a characteristic of soil or acquire a soil sample at each of the locations; a controller, wherein the controller is configured to send a signal to the sampling implement to sense or acquire the soil, when the vehicle reaches each of the locations as the vehicle traverses the field; and characterized in that the sampling implement further comprises a rod having a plurality of scooper discs and configured to scoop soil from the notches through an actuator. a soil probe having a plurality of notches; a location system for determining a position in a field; a memory storing a map, wherein the map defines locations for the sampling implement to sense a characteristic of soil or acquire a soil sample at each of the locations; a controller, wherein the controller is configured to send a signal to the sampling implement to sense or acquire the soil, when the vehicle reaches each of the locations as the vehicle traverses the field; and characterized in that the sampling implement further comprises a rod having a plurality of scooper discs and configured to scoop soil from the notches through an actuator.
A plastic optical fiber comprising an inner layer, an outer layer covering the outer periphery of the inner layer and having a refractive index lower than the refractive index of the inner layer, and a protective coating layer covering the outer periphery of the outer layer, wherein the material forming the inner layer contains an amorphous fluorinated polymer (a) having no C-H bond, the material forming the outer layer contains an amorphous fluorinated polymer (c) which may have a C-H bond only at a terminal of the main chain, the glass transition temperature (Tgc) of the fluorinated polymer (c) is at least the glass transition temperature (Tga) of the fluorinated polymer (a), the plastic optical fiber is a stretched one, the following fracture elongation of the fluorinated polymer (a) and the following fracture elongation of the fluorinated polymer (c) are at least 120% and larger than the stretching ratio in the above stretching, [Fracture elongation of fluorinated polymer] a fluorinated polymer film having a thickness of 200 μm is punched out in a shape of a test piece type L stipulated in ASTM D1822 to form a test piece; in accordance with JIS K7161-1994, a tensile test of the test piece is conducted at a tensile speed of 10 mm/min. at the glass transition temperature of the material forming the protective coating film, whereupon the fracture elongation (%) of the fluorinated polymer is calculated from the following formula: Fracture elongation of fluorinated polymer = increase in gauge length of the test piece at the time of fracture / gauge length of the test piece before the tensile test × 100
Projectile with a propelling assembly or a launch means and an effector assembly for repelling, disrupting and/or damaging a target, in particular an aircraft and/or an electric motor, the effector assembly being configured to be brought by means of a propelling assembly and/or a launch means onto a trajectory for repelling the target, and the effector assembly comprising: a distributing device and a foreign body reservoir, the foreign body reservoir comprising a suppressor substance, the distributing device being configured to release the suppressor substance as a particle cloud on at least one portion of the trajectory, the suppressor substance comprising and/or forming magnetic particles, the propelling assembly or the launch means being configured to bring the effector assembly onto the trajectory, the projectile comprising a flight control device for controlling the flight of the projectile, characterized in that the flight control device is configured to control the projectile to fly ahead of the target at least temporarily and/or in sections, the distributing device being configured to release the suppressor substance while flying ahead of the target, and the distributing device being configured to release the suppressor substance as a trail-shaped particle cloud along the trajectory by way of the suppressor substance being released over a period of time. a distributing device and a foreign body reservoir, the foreign body reservoir comprising a suppressor substance, the distributing device being configured to release the suppressor substance as a particle cloud on at least one portion of the trajectory, the suppressor substance comprising and/or forming magnetic particles, the propelling assembly or the launch means being configured to bring the effector assembly onto the trajectory, the projectile comprising a flight control device for controlling the flight of the projectile, characterized in that the flight control device is configured to control the projectile to fly ahead of the target at least temporarily and/or in sections, the distributing device being configured to release the suppressor substance while flying ahead of the target, and the distributing device being configured to release the suppressor substance as a trail-shaped particle cloud along the trajectory by way of the suppressor substance being released over a period of time.
A touch panel comprising: a capacitive touch panel unit including: a first film unit that is flat; a first touch panel electrode arranged at a side of one principal surface of the first film unit and extending parallel to the first film unit; and a second touch panel electrode arranged at a side of the other principal surface of the first film unit and extending parallel to the first film unit in a direction intersecting the first touch panel electrode; and a pressure sensor unit including: a second film unit that is flat and laminated at a side of the other principal surface of the first film unit; a first pressure sensor electrode arranged at a side of one principal surface of the second film unit; and a second pressure sensor electrode arranged at a side of the other principal surface of the second film unit so as to be opposite to the first pressure sensor electrode, wherein an electrode layer in which the first pressure sensor electrode is formed is the same as an electrode layer in which the second touch panel electrode is formed, and characterized in that an electrode layer in which the second pressure sensor electrode is formed has a non-formation portion where the second pressure sensor electrode is not formed at a position opposite to the second touch panel electrode. a capacitive touch panel unit including: a first film unit that is flat; a first touch panel electrode arranged at a side of one principal surface of the first film unit and extending parallel to the first film unit; and a second touch panel electrode arranged at a side of the other principal surface of the first film unit and extending parallel to the first film unit in a direction intersecting the first touch panel electrode; and a pressure sensor unit including: a second film unit that is flat and laminated at a side of the other principal surface of the first film unit; a first pressure sensor electrode arranged at a side of one principal surface of the second film unit; and a second pressure sensor electrode arranged at a side of the other principal surface of the second film unit so as to be opposite to the first pressure sensor electrode, wherein an electrode layer in which the first pressure sensor electrode is formed is the same as an electrode layer in which the second touch panel electrode is formed, and characterized in that an electrode layer in which the second pressure sensor electrode is formed has a non-formation portion where the second pressure sensor electrode is not formed at a position opposite to the second touch panel electrode.
Sensor element having a ceramic main body and at least one electrode (4, 8), which is arranged on the main body, wherein the electrode (4, 8) has a layer which contains nickel and additionally a fraction of elemental vanadium, and vanadium is present in the nickel-containing layer in a proportion by weight of 7%, wherein the layer is sputtered and wherein the layer is applied directly to the ceramic of the main body.
A rotor blade for a wind turbine, comprising: - a rotor blade root for fixing the rotor blade to the hub of a wind turbine, - an inner blade portion which extends from the rotor blade root in the direction of a longitudinal extension of the rotor blade, - a rear edge segment for increasing the depth of the rotor blade in the profile depth direction in the region of the inner blade portion, wherein the rear edge segment is fixed to the inner blade portion and has an edge facing the inner blade portion, wherein a cover lip (216, 216", 216") which overlaps with the edge is arranged in a transition region from the inner blade portion to the edge of the rear edge segment, wherein the cover lip (216, 216', 216") has a pocket with a depth, in which the edge of the rear edge segment is received movably along the depth of the pocket, characterized in that the pocket has one or more anti-friction members (240, 242) with an anti-friction surface (241, 243) for slidingly receiving the edge of the rear edge segment. - a rotor blade root for fixing the rotor blade to the hub of a wind turbine, - an inner blade portion which extends from the rotor blade root in the direction of a longitudinal extension of the rotor blade, - a rear edge segment for increasing the depth of the rotor blade in the profile depth direction in the region of the inner blade portion, wherein the rear edge segment is fixed to the inner blade portion and has an edge facing the inner blade portion, wherein a cover lip (216, 216", 216") which overlaps with the edge is arranged in a transition region from the inner blade portion to the edge of the rear edge segment, wherein the cover lip (216, 216', 216") has a pocket with a depth, in which the edge of the rear edge segment is received movably along the depth of the pocket, characterized in that the pocket has one or more anti-friction members (240, 242) with an anti-friction surface (241, 243) for slidingly receiving the edge of the rear edge segment.
Sorting apparatus for a compacting system, wherein the sorting apparatus is provided for arrangement between a compacting unit and a collecting unit of the compacting system and is designed to receive from the compacting unit, and to feed the collecting unit, a container (P') which has been compacted by the compacting unit, wherein the sorting apparatus has a sorting element, which can be rotated about an axis of rotation and is designed to carry along the compacted container (P'), once received, along a direction of rotation (r) about the axis of rotation and to convey the compacted container (P') in the direction of the collecting unit; the sorting apparatus has a pick-up surface for picking up the compacted container (P'), said pick-up surface being arranged essentially perpendicularly in relation to the axis of rotation; the sorting apparatus has a boundary edge which is at least to some extent radially symmetrical in relation to the axis of rotation, is at least partially radially adjacent to the sorting element, as seen in relation to the axis of rotation, and is designed to guide within the sorting apparatus the compacted container (P') which is carried along by the sorting element; characterized in that the sorting apparatus is configured for an inclined arrangement in relation to the gravitational-force direction, along which the force of gravity acts, said arrangement being such that the axis of rotation intersects the gravitational-force direction at an angle of more than 0°; and the sorting element is designed to eject the compacted container (P') at an ejecting opening of the sorting apparatus, in order to convey the compacted container in the direction of the collecting unit, wherein the compacted container (P') is ejected at least to some extent counter to the gravitational-force direction, and in that the sorting element has an impeller wheel with at least one vane formed radially in relation to the axis of rotation.
A production method of a pattern-formed body, comprising: applying a resin composition, which contains a first compound exhibiting a surface free energy lower than a surface free energy of a second compound, and a second compound exhibiting surface free energy higher than the surface free energy of the first compound, onto a base; and curing the resin composition with bringing the resin composition into contact with a master plate, to which a pattern has been formed with surface free energy differences, to thereby form, on the base, a cured resin layer to which the pattern of the master plate has been transferred; wherein the master plate contains a higher surface free energy region which has higher surface free energy than surface free energy of a lower surface free energy region, and the lower surface free energy region has a lower surface free energy than the surface free energy of the higher surface free energy region at the surface thereof, the surface free energy differences being based on the higher surface free energy region and the lower surface free energy region. applying a resin composition, which contains a first compound exhibiting a surface free energy lower than a surface free energy of a second compound, and a second compound exhibiting surface free energy higher than the surface free energy of the first compound, onto a base; and curing the resin composition with bringing the resin composition into contact with a master plate, to which a pattern has been formed with surface free energy differences, to thereby form, on the base, a cured resin layer to which the pattern of the master plate has been transferred; wherein the master plate contains a higher surface free energy region which has higher surface free energy than surface free energy of a lower surface free energy region, and the lower surface free energy region has a lower surface free energy than the surface free energy of the higher surface free energy region at the surface thereof, the surface free energy differences being based on the higher surface free energy region and the lower surface free energy region.