mhurhangee/ep-ind-claims huggingface dataset:
A naval azimuth propulsion system comprising: - an electric motor, - a propeller operatively connected to the electric motor to rotate about its central axis, - an annular nozzle positioned coaxially around the propeller, - elements for supporting the motor and the propeller, the elements being designed to be connected to the hull of a ship, characterized in that it further comprises: - first magnetic shielding means designed to shield the magnetic field generated by the electric motor during its operation, - second magnetic shielding means to compensate the variations of the terrestrial magnetic field generated by the movement at least of the first shielding means relative to the terrestrial magnetic field, wherein the second magnetic shielding means comprise a plurality of electrical conductor turns wound on the annular nozzle, the turns generating a respective magnetic field when electric current passes through them and in that the second magnetic shielding means comprise check and control means configured to regulate the electric current flowing in the conductor turns. - an electric motor, - a propeller operatively connected to the electric motor to rotate about its central axis, - an annular nozzle positioned coaxially around the propeller, - elements for supporting the motor and the propeller, the elements being designed to be connected to the hull of a ship, characterized in that it further comprises: - first magnetic shielding means designed to shield the magnetic field generated by the electric motor during its operation, - second magnetic shielding means to compensate the variations of the terrestrial magnetic field generated by the movement at least of the first shielding means relative to the terrestrial magnetic field, wherein the second magnetic shielding means comprise a plurality of electrical conductor turns wound on the annular nozzle, the turns generating a respective magnetic field when electric current passes through them and in that the second magnetic shielding means comprise check and control means configured to regulate the electric current flowing in the conductor turns. - first magnetic shielding means designed to shield the magnetic field generated by the electric motor during its operation, - second magnetic shielding means to compensate the variations of the terrestrial magnetic field generated by the movement at least of the first shielding means relative to the terrestrial magnetic field, wherein the second magnetic shielding means comprise a plurality of electrical conductor turns wound on the annular nozzle, the turns generating a respective magnetic field when electric current passes through them and in that the second magnetic shielding means comprise check and control means configured to regulate the electric current flowing in the conductor turns.
A DNA polymerase having at least 80% identity with SEQ ID NO:1 or with SEQ ID NO: 2 and having increased 3'-mismatch discrimination activity compared with a control DNA polymerase, wherein the DNA polymerase comprises a motif in the polymerase domain comprising A-G-H-P-F-N-L-N-S-R-D-Q-L-X 10 -R-V-L-F-D-E-L, wherein: X 10 is A, G, K, or R (SEQ ID NO:10); wherein the control DNA polymerase has the same amino acid sequence as the DNA polymerase except that amino acid X 10 of the control DNA polymerase is E. A-G-H-P-F-N-L-N-S-R-D-Q-L-X 10 -R-V-L-F-D-E-L, wherein: X 10 is A, G, K, or R (SEQ ID NO:10); wherein the control DNA polymerase has the same amino acid sequence as the DNA polymerase except that amino acid X 10 of the control DNA polymerase is E. X 10 is A, G, K, or R (SEQ ID NO:10); wherein the control DNA polymerase has the same amino acid sequence as the DNA polymerase except that amino acid X 10 of the control DNA polymerase is E.
Container comprising a pallet and a sleeve formed from multiple panels (31, 32, 33, 34) defining a loading volume, the sleeve vertically resting on the pallet via its lower edge and being attached to the pallet by a removable attachment means, the removable attachment means comprising at least one locking tab secured to a panel of the sleeve engaging via a lug with an edge of the pallet to immobilise the sleeve on the pallet in the vertical direction, characterised in that the attachment means comprises a fin secured to the sleeve positioned in the extension of one of the panels at its lower edge, the fin engaging with a housing made within the pallet, the locking tab comprising a part capable of moving in rotation around the lower edge of the sleeve, said lug being positioned to rest against a lower surface of the edge of the pallet opposite the sleeve, the fin being to the right of said lug when the latter is resting against said lower surface opposite the sleeve.
A device for repairing a bone disorder using a polyaxial bone screw comprising: a longitudinal sleeve; a rod having an end, the rod extending from within the longitudinal sleeve and moveable within the longitudinal sleeve; and a contact surface disposed on the end of the rod which is configured to transmit a force against a bone screw to prevent movement of the polyaxial bone screw for as long as the force is transmitted, wherein the rod is threaded for engaging a threaded screw cap of the bone screw, characterized in that the contact surface is a contact rod disposed perpendicular to the longitudinal axis of the threaded rod, and in that the contact rod is free to rotate around a central axis which is the same as the longitudinal axis of the threaded rod. a longitudinal sleeve; a rod having an end, the rod extending from within the longitudinal sleeve and moveable within the longitudinal sleeve; and a contact surface disposed on the end of the rod which is configured to transmit a force against a bone screw to prevent movement of the polyaxial bone screw for as long as the force is transmitted, wherein the rod is threaded for engaging a threaded screw cap of the bone screw, characterized in that the contact surface is a contact rod disposed perpendicular to the longitudinal axis of the threaded rod, and in that the contact rod is free to rotate around a central axis which is the same as the longitudinal axis of the threaded rod.
A single-leaf spring comprising a body and two eyes located at the ends of the said body, with the body having an upper side and a lower side, the single-leaf spring comprising at least one composite material sheet formed by a set of fibre plies embedded in a polymer matrix to form a single-leaf spring, where the sheet is a single sheet that runs longitudinally along both sides of the body and the eyes of the leaf spring and wherein the sheet, by having both sides (3, 4) folded, creates the eyes of the leaf spring characterised in that the single-leaf spring comprises a stitching of the composite material sheet between the upper side and the lower side near the eyes of the leaf spring.
A method for producing trans -1,2-difluoroethylene (HFO-1132) and/or cis -1,2-difluoroethylene (HFO-1132), comprising supplying a composition containing HFO-1132 and/or HFO-1132 to a reactor, and performing an isomerization reaction between HFO-1132 and HFO-1132 at a reaction temperature of ≥ 600°C.
An ultrasonic imaging device comprising: a cell array with a plurality of cells each including a first electrode, a first member covering the first electrode, a second electrode installed opposite the first electrode, a second member covering the second electrode, and a wall member connecting the first member and the second member together; and a voltage controller (20∼37) configured to control a voltage applied between the first electrode and the second electrode, wherein the voltage controller includes a direct voltage application section configured to apply a direct voltage between the first electrode and the second electrode, an alternating voltage application section (37, 35, 21, 33) configured to apply an alternating voltage between the first electrode and the second electrode, and a waveform controller configured to superimpose an envelope waveform on the waveform of the alternating voltage, characterised in that the waveform controller is configured to apply a weight to the envelope waveform which depends on the positive and negative polarity of the alternating voltage so that the positive and negative amplitudes of the alternating voltage are made asymmetric, and to temporally vary the amplitude ratio of the alternating voltage based on voltage values of the alternating voltage and the direct voltage. a cell array with a plurality of cells each including a first electrode, a first member covering the first electrode, a second electrode installed opposite the first electrode, a second member covering the second electrode, and a wall member connecting the first member and the second member together; and a voltage controller (20∼37) configured to control a voltage applied between the first electrode and the second electrode, wherein the voltage controller includes a direct voltage application section configured to apply a direct voltage between the first electrode and the second electrode, an alternating voltage application section (37, 35, 21, 33) configured to apply an alternating voltage between the first electrode and the second electrode, and a waveform controller configured to superimpose an envelope waveform on the waveform of the alternating voltage, characterised in that the waveform controller is configured to apply a weight to the envelope waveform which depends on the positive and negative polarity of the alternating voltage so that the positive and negative amplitudes of the alternating voltage are made asymmetric, and to temporally vary the amplitude ratio of the alternating voltage based on voltage values of the alternating voltage and the direct voltage.
A vehicle-body front structure including a front bumper and a bumper reinforcement that extends in a vehicle right-left direction, wherein the front bumper includes a bumper fascia having an opening at a vehicle right-left direction intermediate portion, a front grill provided to cover the opening, and a decorative member for decorating a vehicle front surface provided along a peripheral portion of the opening, the decorative member includes a left part extending along a left edge portion of the opening, and a right part extending along a right edge portion of the opening, a left end portion of the bumper reinforcement is positioned on a right side of the left part of the decorative member, and a right end portion of the bumper reinforcement is positioned on a left side of the right part of the decorative member, characterized in that the vehicle-body front structure (a) further comprises: a left-side crush can supporting a vehicle left side of the bumper reinforcement; and a right-side crush can supporting a vehicle right side of the bumper reinforcement, wherein the left-side crush can is positioned on the right side of the left part of the decorative member, and the right-side crush can is positioned on the left side of the right part of the decorative member. the front bumper includes a bumper fascia having an opening at a vehicle right-left direction intermediate portion, a front grill provided to cover the opening, and a decorative member for decorating a vehicle front surface provided along a peripheral portion of the opening, the decorative member includes a left part extending along a left edge portion of the opening, and a right part extending along a right edge portion of the opening, a left end portion of the bumper reinforcement is positioned on a right side of the left part of the decorative member, and a right end portion of the bumper reinforcement is positioned on a left side of the right part of the decorative member, characterized in that the vehicle-body front structure (a) further comprises: a left-side crush can supporting a vehicle left side of the bumper reinforcement; and a right-side crush can supporting a vehicle right side of the bumper reinforcement, wherein the left-side crush can is positioned on the right side of the left part of the decorative member, and the right-side crush can is positioned on the left side of the right part of the decorative member. a left-side crush can supporting a vehicle left side of the bumper reinforcement; and a right-side crush can supporting a vehicle right side of the bumper reinforcement, wherein the left-side crush can is positioned on the right side of the left part of the decorative member, and the right-side crush can is positioned on the left side of the right part of the decorative member.
A processor comprising: a virtual linebuffer comprising a sliding buffer and a full-size buffer, wherein the sliding buffer has a height SH and a width SW, wherein the full-size buffer has a height FH and a width FW, wherein FW is greater than SW, and SH is greater than FH, and wherein the virtual linebuffer is configured to: store a first portion of a first slice of a first slice row in the full-size buffer, store a second portion of the first slice in the sliding buffer, and move data within the first slice including overwriting the first portion of the first slice in the full-size buffer with FH lines of the second portion of the first slice in the sliding buffer at a location in the full-size buffer where the first portion was stored after the first slice has been read; and image processing logic configured to perform a kernel function on each of multiple partially overlapping stencils of a slice of pixels using the first portion from the full-size buffer and the second portion from the sliding buffer, each stencil being a two-dimensional region of image data, and each slice of pixels being a portion of a slice row. a virtual linebuffer comprising a sliding buffer and a full-size buffer, wherein the sliding buffer has a height SH and a width SW, wherein the full-size buffer has a height FH and a width FW, wherein FW is greater than SW, and SH is greater than FH, and wherein the virtual linebuffer is configured to: store a first portion of a first slice of a first slice row in the full-size buffer, store a second portion of the first slice in the sliding buffer, and move data within the first slice including overwriting the first portion of the first slice in the full-size buffer with FH lines of the second portion of the first slice in the sliding buffer at a location in the full-size buffer where the first portion was stored after the first slice has been read; and store a first portion of a first slice of a first slice row in the full-size buffer, store a second portion of the first slice in the sliding buffer, and move data within the first slice including overwriting the first portion of the first slice in the full-size buffer with FH lines of the second portion of the first slice in the sliding buffer at a location in the full-size buffer where the first portion was stored after the first slice has been read; and image processing logic configured to perform a kernel function on each of multiple partially overlapping stencils of a slice of pixels using the first portion from the full-size buffer and the second portion from the sliding buffer, each stencil being a two-dimensional region of image data, and each slice of pixels being a portion of a slice row.
A high flow apparatus adapted to, in use, provide a gas flow with a varying gas flow rate to a patient, for oxygenation and/or CO 2 clearance of the patient, during a medical procedure having a pre-oxygenation stage and an anaesthesia stage, comprising: a flow source or a connection for a flow source for providing the gas flow, a gas flow modulator, a non-sealing interface, a controller characterized in that the controller is configured to receive sensor data and/or user input to determine the patient's transition from the pre-oxygenation stage to the anaesthesia stage, and on determination of this transition, to control the gas flow flow rate by controlling the gas flow modulator to provide a varying gas flow rate with a base gas flow component and at least one oscillating gas flow component with one or more frequencies. a flow source or a connection for a flow source for providing the gas flow, a gas flow modulator, a non-sealing interface, a controller characterized in that the controller is configured to receive sensor data and/or user input to determine the patient's transition from the pre-oxygenation stage to the anaesthesia stage, and on determination of this transition, to control the gas flow flow rate by controlling the gas flow modulator to provide a varying gas flow rate with a base gas flow component and at least one oscillating gas flow component with one or more frequencies.
A method for producing a metallic component having at least two regions of different strength properties inside the same component obtained by means of different cooling rates of the various regions, characterized by the following method features: - a metallic base body, which has at least one austenizing temperature, is provided in a heating unit (2, 5), - a region of the base body is shielded during a subsequent thermal loading of the base body in the heating unit (2, 5) until the component temperature of this region has fallen to a predetermined temperature below the austenizing temperature but still above the martensite start temperature, wherein an average cooling rate below the critical cooling rate for martensite formation prevails in this component region, whilst the unshielded region is furthermore held at least at the austenizing temperature, - the shielding is removed, the base body with graduated temperature profile is removed from the heating unit (2, 5) and subjected to a moulding process by means of a mould, wherein at least in the previously unshielded region, a cooling rate above the cooling rate critical for martensite formation prevails. - a metallic base body, which has at least one austenizing temperature, is provided in a heating unit (2, 5), - a region of the base body is shielded during a subsequent thermal loading of the base body in the heating unit (2, 5) until the component temperature of this region has fallen to a predetermined temperature below the austenizing temperature but still above the martensite start temperature, wherein an average cooling rate below the critical cooling rate for martensite formation prevails in this component region, whilst the unshielded region is furthermore held at least at the austenizing temperature, - the shielding is removed, the base body with graduated temperature profile is removed from the heating unit (2, 5) and subjected to a moulding process by means of a mould, wherein at least in the previously unshielded region, a cooling rate above the cooling rate critical for martensite formation prevails.
A relative motion detecting device for detecting relative motion in a two dimensional plane between a first element and a second element of a robotic apparatus, said motion resulting from an external contact force transmitted to said first element, said device comprising a plurality of Hall effect sensors and at least one magnet, said Hall Effect sensors being located on a first of said first element or said second element, said magnet being located on a second of said first element or said second element, characterised in that a locus of points through which a first of said magnet or said Hall effect sensors may in use pass defines a generally spherical segment and a second of said magnet or said Hall effect sensors are spaced from said spherical segment.
Bolt for a repeating rifle with a bolt guide, a chamber arranged in the bolt guide, a support sleeve arranged to be displaceable on a rear part of the chamber and a locking sleeve arranged concentrically around the support sleeve which has several locking elements which is movable by the support sleeve between an inner release position and an outer locking position for engagement in a locking groove of a barrel, wherein the locking sleeve is designed as an expanding sleeve with several spring tongues which have on their inner side, rising slopes for engagement with a front bevelled end-face surface of the support sleeve, characterised in that a rim-priming firing pin coupled to the support sleeve via a reset element is arranged in the chamber.
A method for fabricating atomic scale multi-terminal electronic devices, comprising the steps of: opening one or more regions of a mask on a semiconductor surface using a scanning tunnelling microscope tip capable of atomic precision or a scanning electron microscope capable of micro-nano precision; treating the regions to form coplanar components (30, 32, 34) of the device on the semiconductor surface; encapsulating the components of the device (30, 32, 34) with more semiconductor; identifying locations on the surface of the encapsulated device that are above selected components of the device (30, 32, 34) encapsulated below the surface; forming conducting elements on the surface of the encapsulated device at the identified locations; and, electrically connecting conducting elements on the surface of the encapsulated device with aligned components of the device (30, 32, 34) encapsulated below the surface, characterized wherein identifying locations on the surface of the encapsulated device that are above selected components of the device (30, 32, 34) encapsulated below the surface comprises imaging the components of the device (30, 32, 34) encapsulated below the surface using an optical or electron microscope to identify locations on the surface of the encapsulated device that are above selected components of the device (30, 32, 34) encapsulated below the surface. opening one or more regions of a mask on a semiconductor surface using a scanning tunnelling microscope tip capable of atomic precision or a scanning electron microscope capable of micro-nano precision; treating the regions to form coplanar components (30, 32, 34) of the device on the semiconductor surface; encapsulating the components of the device (30, 32, 34) with more semiconductor; identifying locations on the surface of the encapsulated device that are above selected components of the device (30, 32, 34) encapsulated below the surface; forming conducting elements on the surface of the encapsulated device at the identified locations; and, electrically connecting conducting elements on the surface of the encapsulated device with aligned components of the device (30, 32, 34) encapsulated below the surface, characterized wherein identifying locations on the surface of the encapsulated device that are above selected components of the device (30, 32, 34) encapsulated below the surface comprises imaging the components of the device (30, 32, 34) encapsulated below the surface using an optical or electron microscope to identify locations on the surface of the encapsulated device that are above selected components of the device (30, 32, 34) encapsulated below the surface.