mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: transferring a streamer cleaning device to a geophysical sensor streamer, the transferring by: towing the geophysical sensor streamer through water while the geophysical sensor streamer is submerged; and towing a tow fish through water by way of an umbilical, the streamer cleaning device coupled within a payload area of the tow fish during the towing of the tow fish through the water; characterised by: landing the tow fish on the geophysical sensor streamer by abutting a channel at a proximal end of the tow fish against an outside surface of the geophysical sensor streamer, and thereby abutting the streamer cleaning device against the geophysical sensor streamer; closing the streamer cleaning device around the geophysical sensor streamer; releasing the streamer cleaning device from the payload area; and separating the tow fish from streamer cleaning device and the geophysical sensor streamer. towing the geophysical sensor streamer through water while the geophysical sensor streamer is submerged; and towing a tow fish through water by way of an umbilical, the streamer cleaning device coupled within a payload area of the tow fish during the towing of the tow fish through the water; characterised by: landing the tow fish on the geophysical sensor streamer by abutting a channel at a proximal end of the tow fish against an outside surface of the geophysical sensor streamer, and thereby abutting the streamer cleaning device against the geophysical sensor streamer; closing the streamer cleaning device around the geophysical sensor streamer; releasing the streamer cleaning device from the payload area; and separating the tow fish from streamer cleaning device and the geophysical sensor streamer. landing the tow fish on the geophysical sensor streamer by abutting a channel at a proximal end of the tow fish against an outside surface of the geophysical sensor streamer, and thereby abutting the streamer cleaning device against the geophysical sensor streamer; closing the streamer cleaning device around the geophysical sensor streamer; releasing the streamer cleaning device from the payload area; and separating the tow fish from streamer cleaning device and the geophysical sensor streamer.
A portable beverage container, comprising: a rigid outer shell; an inner vessel configured to be disposed at least partially within the outer shell; a cap configured to be secured to the outer shell; a spout configured to be engaged with the cap and to extend through an opening in the cap into a neck of the inner vessel, wherein the spout is removable from the cap while the cap is secured to the outer shell; an upper shock absorber configured to be compressed between the inner vessel and the outer shell when the cap is secured to the outer shell; and a lower shock absorber configured to be disposed between the inner vessel and the outer shell, wherein the lower shock absorber includes a drainage feature that allows liquid to drain there through, wherein the lower shock absorber further includes a circumferential recess configured to receive a circumferential protrusion on a base portion of the inner vessel. a rigid outer shell; an inner vessel configured to be disposed at least partially within the outer shell; a cap configured to be secured to the outer shell; a spout configured to be engaged with the cap and to extend through an opening in the cap into a neck of the inner vessel, wherein the spout is removable from the cap while the cap is secured to the outer shell; an upper shock absorber configured to be compressed between the inner vessel and the outer shell when the cap is secured to the outer shell; and a lower shock absorber configured to be disposed between the inner vessel and the outer shell, wherein the lower shock absorber includes a drainage feature that allows liquid to drain there through, wherein the lower shock absorber further includes a circumferential recess configured to receive a circumferential protrusion on a base portion of the inner vessel.
An installation (1, 4) for dredging or deepening a bottom in or of a body of water, at least comprising: - a float defining an operational area; - a dredger crane or a suction pipe configured to remove bottom material in the operational area; and - a screen which in use can be positioned adjacently of the operational area of the dredger crane or the suction pipe or at least upstream thereof relative to a flow direction in or of the body of water, and in use prevents the dispersal of bottom material dislodged during dredging with the dredger crane or suctioning with the suction pipe or deepening of the bottom, wherein the float is selectively lowerable and dimensioned to be lowered onto or into the bottom of the body of water, and in lowered position forms the screen, CHARACTERIZED BY a scraper arranged on or at an underside of the float and in the operational area. - a float defining an operational area; - a dredger crane or a suction pipe configured to remove bottom material in the operational area; and - a screen which in use can be positioned adjacently of the operational area of the dredger crane or the suction pipe or at least upstream thereof relative to a flow direction in or of the body of water, and in use prevents the dispersal of bottom material dislodged during dredging with the dredger crane or suctioning with the suction pipe or deepening of the bottom,
A method of dust control in an environment, comprising: providing a polymer and an aqueous liquid to form a mixture, wherein the polymer comprises partially oxidized dextran, levan, and/or guar gum containing intact glycosidic bonds and functionalized with one or more amino moieties; and applying the mixture to an area that generates dust. providing a polymer and an aqueous liquid to form a mixture, wherein the polymer comprises partially oxidized dextran, levan, and/or guar gum containing intact glycosidic bonds and functionalized with one or more amino moieties; and applying the mixture to an area that generates dust.
A method of manufacturing semi-manufactured PTC heating elements comprising the steps of: - providing an electrically insulating support foil,; - providing an electrically conductive foil; and - laminating a PTC compound between the electrically insulating support foil and the electrically conductive foil, wherein the PTC compound has adhesive properties for bonding the laminate together, characterised in that said electrically insulating support foil is a polymer foil. - providing an electrically insulating support foil,; - providing an electrically conductive foil; and - laminating a PTC compound between the electrically insulating support foil and the electrically conductive foil, wherein the PTC compound has adhesive properties for bonding the laminate together,
A torque and angle of rotation detection system comprising a rotor unit that is able to rotate about an axis of rotation; comprising a stator unit arranged in a stationary manner and separated from the rotor unit by an air gap arranged radially with respect to the axis of rotation; wherein the rotor unit comprises strain gauges which detect a torque acting onto the rotor unit; wherein the rotor unit comprises a plurality of dipole magnets arranged spaced apart from each other; wherein the stator unit comprises a magnetic field sensor that measures magnetic fields of the dipole magnets during rotation of the rotor unit; wherein the stator unit comprises a primary coil and the rotor unit comprises a secondary coil; and wherein a primary electrical voltage in the primary coil generates a secondary electrical voltage in the secondary coil; characterized in that each of the dipole magnets has a remanence of more than/equal to 1000mT, preferably of more than/equal to 1400mT; and in that the secondary coil comprises a plurality of ferrite elements.
A direct drive conveyor comprising: an endless thermoplastic belt (100, 208, 400), stretchable under load; at least one drive pulley (102, 202, 408) wherein the belt has teeth (106, 306, 402) and the pulley has recesses (104, 406) wherein the tooth pitch of the belt is less than the pitch of the drive pulley at less than maximum elongation of the belt so that, only one tooth will be driven by a pulley recess at any given moment, and the pulley may rotate while the belt slips until a tooth engages again, characterized by: means (132, 136, 138) to permit minimal friction between the belt and the drive pulley where friction adds a force component that interferes with the relative movement between the belt and the pulley. an endless thermoplastic belt (100, 208, 400), stretchable under load; at least one drive pulley (102, 202, 408) wherein the belt has teeth (106, 306, 402) and the pulley has recesses (104, 406) wherein the tooth pitch of the belt is less than the pitch of the drive pulley at less than maximum elongation of the belt so that, only one tooth will be driven by a pulley recess at any given moment, and the pulley may rotate while the belt slips until a tooth engages again, characterized by: means (132, 136, 138) to permit minimal friction between the belt and the drive pulley where friction adds a force component that interferes with the relative movement between the belt and the pulley. means (132, 136, 138) to permit minimal friction between the belt and the drive pulley where friction adds a force component that interferes with the relative movement between the belt and the pulley.
System for managing at least one sub-assembly of an electric battery, the one or each sub-assembly comprising a plurality of power storage cells, the system including, for each power storage cell, a circuit for managing the state of the cell and a communication circuit, the communication circuit being configured such that it receives and transmits data relative to the cell, characterised in that the communication circuit is configured such that it transposes, over a carrier frequency, the data to be received and to be transmitted, the value of said carrier frequency being greater than or equal to 1 GHz, and in that the management system further includes, for the one or for each sub-assembly, a loss cable connecting the power storage cells of said sub-assembly, and in that said loss cable acts as a waveguide and is coupled, for each power storage cell, by capacitive coupling means electrically connected to the communication circuit of the cell, the power storage cells in the same subassembly being connected to each other in series.
A surgical instrument, comprising: a handle portion; an elongated body portion extending distally from the handle portion and defining a longitudinal axis; a tool assembly mounted on a distal end of the body portion, the tool assembly being articulatable from a first position substantially aligned with the longitudinal axis to a second position; a drive beam (850, 950) operably connecting the handle portion to the tool assembly and configured for actuating the tool assembly in at least the first and second position, the drive beam (850, 950) including a flexible band (852, 952) having a first surface and a second surface, characterised in that a plurality of substantially planar segments are fastened to at least the first surface of the band (852, 952) to transfer force along the drive beam (850, 950), and in that a plate (899, 999) is disposed adjacent the plurality of segments to inhibit buckling of the drive beam. a handle portion; an elongated body portion extending distally from the handle portion and defining a longitudinal axis; a tool assembly mounted on a distal end of the body portion, the tool assembly being articulatable from a first position substantially aligned with the longitudinal axis to a second position; a drive beam (850, 950) operably connecting the handle portion to the tool assembly and configured for actuating the tool assembly in at least the first and second position, the drive beam (850, 950) including a flexible band (852, 952) having a first surface and a second surface, characterised in that a plurality of substantially planar segments are fastened to at least the first surface of the band (852, 952) to transfer force along the drive beam (850, 950), and in that a plate (899, 999) is disposed adjacent the plurality of segments to inhibit buckling of the drive beam.
A method for cutting flattened food dough (3, 103) into a long and continuous shape, comprising: (a) a process for cutting the flattened food dough (3, 103) by moving a cutter relative to the food dough (3, 103) from one lateral end to the other lateral end of the food dough (3, 103), and a process for discontinuing the cutting process by lifting up the cutter from the food dough (3, 103) so that an uncut part (3B, 3C) is left near the other lateral end; (b) a process for cutting the flattened food dough (3, 103) from the other lateral end to the one lateral end of the food dough (3, 103) after moving the cutter relative to the food dough (3, 103) along the direction perpendicular to the direction to cut the food dough (3, 103), and a process for discontinuing the cutting process by lifting up the cutter from the food dough (3, 103) so that an uncut part (3B, 3C) is left near the one lateral end; (c) a process for moving the cutter relative to the food dough (3, 103) along the direction perpendicular to the direction to cut the food dough (3, 103); and (d) processes for repeating the processes (a) to (c). (a) a process for cutting the flattened food dough (3, 103) by moving a cutter relative to the food dough (3, 103) from one lateral end to the other lateral end of the food dough (3, 103), and a process for discontinuing the cutting process by lifting up the cutter from the food dough (3, 103) so that an uncut part (3B, 3C) is left near the other lateral end; (b) a process for cutting the flattened food dough (3, 103) from the other lateral end to the one lateral end of the food dough (3, 103) after moving the cutter relative to the food dough (3, 103) along the direction perpendicular to the direction to cut the food dough (3, 103), and a process for discontinuing the cutting process by lifting up the cutter from the food dough (3, 103) so that an uncut part (3B, 3C) is left near the one lateral end; (c) a process for moving the cutter relative to the food dough (3, 103) along the direction perpendicular to the direction to cut the food dough (3, 103); and (d) processes for repeating the processes (a) to (c).
A method for time-lapse photographing, the method being implemented in a terminal comprising a camera, the method comprising: displaying, after detecting that the camera is turned on, a photographing interface at least comprising a shutter operation control, the shutter operation control being composed of a shutter button and an annular time setting region surrounding the outside of said shutter button; determining delay time according to the time setting region; and photographing according to the delay time, wherein the time setting region is composed of a preset number of subregions and each subregion corresponds to one delay time; and wherein the step of determining the delay time according to the time setting region comprises: detecting a selected subregion in the time setting region; and determining the delay time according to the selected subregion. displaying, after detecting that the camera is turned on, a photographing interface at least comprising a shutter operation control, the shutter operation control being composed of a shutter button and an annular time setting region surrounding the outside of said shutter button; determining delay time according to the time setting region; and photographing according to the delay time, wherein the time setting region is composed of a preset number of subregions and each subregion corresponds to one delay time; and wherein the step of determining the delay time according to the time setting region comprises: detecting a selected subregion in the time setting region; and determining the delay time according to the selected subregion. detecting a selected subregion in the time setting region; and determining the delay time according to the selected subregion.
Method for control of a welding current source with a serial/parallel resonant converter, a bridge circuit and a control unit, the bridge circuit supplying the serial/parallel resonant converter with power and comprising a first bridge branch with first and second switching elements (A1, A2) arranged in series with one another and a second bridge branch connected in parallel to the first bridge branch and with third and fourth switching elements (B1, B2) arranged in series with one another and the switching elements being controlled by the control unit in accordance with a succession of switching states stored in the control unit which are determined by a positive drive phase, a first freewheel phase, a negative drive phase and a second freewheel phase, the start of a drive phase being defined by a switchover of the first and second switching elements (A1, A2) and the end of a drive phase being defined by a phase-shifted switchover of the third and fourth switching elements (B1, B2) and, in a first control mode of the control unit, the switching frequency of the switching elements being selected in dependence on the frequency of the resonant converter current, characterised in that, in a second control mode of the control unit, the switching frequency of the switching elements is reduced by an integral factor compared with the switching frequency of the first control mode, and the control unit is selectively operated in the first control mode or in the second control mode.
Comminution unit 1, comprising a first comminution stage A with a rotor 7 driven by means of a rotary drive and a second comminution stage B located underneath with a rotor 8 driven by means of a rotary drive whereby the rotor 7 of the first comminution stage A and the rotor 8 of the second comminution stage B have a common rotational axis 9 that is vertically aligned characterised in that the first comminution stage A is a shredder and the second comminution stage B is a granulator. a first comminution stage A with a rotor 7 driven by means of a rotary drive and a second comminution stage B located underneath with a rotor 8 driven by means of a rotary drive whereby the rotor 7 of the first comminution stage A and the rotor 8 of the second comminution stage B have a common rotational axis 9 that is vertically aligned characterised in that the first comminution stage A is a shredder and the second comminution stage B is a granulator.
A multilayer packaging structure for a thin film battery, said structure comprising at least: - a first layer, - a second layer, - a metal layer sandwiched between the first layer and the second layer, - a third layer sandwiched between the first layer and the metal layer, wherein said structure further comprises: - a first opening arranged in the first layer such that a first portion (24, 31) of the metal layer associated with the arranged first opening is exposed, said first portion (24, 31) of the metal layer being configured to be able to be in electrical contact with a current collector of the thin film battery, - a second opening arranged in the second layer such that a second portion of the metal layer associated with the arranged second opening is exposed, said second portion of the metal layer being configured to be able to be electrically connected to an external circuitry, - a third opening arranged in the third layer, the center of said third opening being aligned with the center of the first opening arranged in the first layer, such that the first portion (24, 31) of the metal associated with the arranged first and third openings (21, 23) is exposed, said first portion (24, 31) of the metal layer being configured to be able to be in electrical contact with said current collector of the thin film battery, wherein the third layer is an acid-modified polypropylene layer preventing electrolyte penetration into the metal layer. - a first layer, - a second layer, - a metal layer sandwiched between the first layer and the second layer, - a third layer sandwiched between the first layer and the metal layer, - a first opening arranged in the first layer such that a first portion (24, 31) of the metal layer associated with the arranged first opening is exposed, said first portion (24, 31) of the metal layer being configured to be able to be in electrical contact with a current collector of the thin film battery, - a second opening arranged in the second layer such that a second portion of the metal layer associated with the arranged second opening is exposed, said second portion of the metal layer being configured to be able to be electrically connected to an external circuitry, - a third opening arranged in the third layer, the center of said third opening being aligned with the center of the first opening arranged in the first layer, such that the first portion (24, 31) of the metal associated with the arranged first and third openings (21, 23) is exposed, said first portion (24, 31) of the metal layer being configured to be able to be in electrical contact with said current collector of the thin film battery,
O-cyclic phytospingosine-1-phosphate (O-C-P1P) represented by Formula 1a below or N-cyclic phytospingosine-1-phosphate (N-C-P1P) represented by Formula 1b below, a pharmaceutically acceptable salt of O-C-P1P or N-C-P1P, or a solvate of O-C-P1P or N-C-P1P:
An avionics server comprising: a plurality of device ports, wherein each one of the plurality of device ports is coupled to a single respective one of a plurality of device network interface cards and dedicated to a single respective one of a plurality of domains, which corresponds to the single respective one device network interface card, wherein each one of the plurality of domains comprises a respective dedicated firewall restricting access to a plurality of applications and/or services on each one of the plurality of domains; and at least one processing device configured to identify one or more signals from a respective user device received, via the respective plurality of device network interface cards, at one or more of the plurality of device ports and to verify, by the respective dedicated firewall, whether the user has access to the respective domains that are dedicated to the one or more device ports over which the one or more signals are received. a plurality of device ports, wherein each one of the plurality of device ports is coupled to a single respective one of a plurality of device network interface cards and dedicated to a single respective one of a plurality of domains, which corresponds to the single respective one device network interface card, wherein each one of the plurality of domains comprises a respective dedicated firewall restricting access to a plurality of applications and/or services on each one of the plurality of domains; and at least one processing device configured to identify one or more signals from a respective user device received, via the respective plurality of device network interface cards, at one or more of the plurality of device ports and to verify, by the respective dedicated firewall, whether the user has access to the respective domains that are dedicated to the one or more device ports over which the one or more signals are received.