mhurhangee/ep-ind-claims huggingface dataset:
A helmet comprising: a rigid shell dimensioned to receive the head of a wearer; a visor moveably attached to the shell and configurable between a first position in which the visor extends from a forward region of the shell and a second position in which the visor is substantially retracted with respect to the forward region of the shell, characterised in that the helmet is configured such that in use, actuation of the movement of the visor between the first position and the second position is automated on removal of the helmet from the head of a user. a rigid shell dimensioned to receive the head of a wearer; a visor moveably attached to the shell and configurable between a first position in which the visor extends from a forward region of the shell and a second position in which the visor is substantially retracted with respect to the forward region of the shell, characterised in that the helmet is configured such that in use, actuation of the movement of the visor between the first position and the second position is automated on removal of the helmet from the head of a user.
A method for treating a device to resist formation and build-up of scale deposits at the device, the device being located in a fluid-containing conduit, the method comprising: feeding a variable, pulsed, oscillating radio frequency, RF, signal into a line connected to the device located in the fluid-containing conduit; and propagating the RF signal along the line to the device to propagate an electromagnetic field throughout the device to resist formation and/or build-up of scale deposits at the device. feeding a variable, pulsed, oscillating radio frequency, RF, signal into a line connected to the device located in the fluid-containing conduit; and propagating the RF signal along the line to the device to propagate an electromagnetic field throughout the device to resist formation and/or build-up of scale deposits at the device.
Gripping or clamping device comprising a housing body and at least one jaw guide which is provided in the housing body and has two lateral walls, comprising at least one jaw (16, 18) which can be moved in the jaw guide along a movement direction, guide surfaces being provided on the lateral walls and the jaw (16, 18) having sliding surfaces which interact with the guide surfaces in order to form a sliding guide, characterized in that at least one raceway part and rolling elements are provided in the jaw guide, the jaw (16, 18) and the raceway part each having a raceway (34, 36) for contact with the rolling elements in order to form a rolling guide, and in that pretensioning means are provided for generating a pretensioning force, the pretensioning force acting on the raceway part, such that the rolling elements are pushed against the raceways on the jaw side.
Arsenic trioxide and D-vitamin C (D-VC) or pharmaceutically acceptable salts thereof for use in a method for treating cancer, the method comprising administering to a subject in need thereof a therapeutically effective dose of arsenic trioxide and D-vitamin C (D-VC) or pharmaceutically acceptable salts thereof, wherein the cancer comprises a KRAS mutation.
An interlocking nested cannula set, comprising: a plurality of telescoping tubes cooperatively configured and dimensioned to reach a target location relative to an anatomical region, wherein each tube has an interlocking shape, and wherein a nesting of an inner tube within an outer tube includes a gap between the inner tube and the outer tube for allowing a rotation of the inner tube within the outer tube that is limited by the outer tube and a rotation of the outer tube about the inner tube that is limited by the inner tube, and the inner tube and the outer tube interlocking within the gap to limit the rotation of the inner tube and the outer tube relative to the gap. a plurality of telescoping tubes cooperatively configured and dimensioned to reach a target location relative to an anatomical region, wherein each tube has an interlocking shape, and wherein each tube has an interlocking shape, and a gap between the inner tube and the outer tube for allowing a rotation of the inner tube within the outer tube that is limited by the outer tube and a rotation of the outer tube about the inner tube that is limited by the inner tube, and the inner tube and the outer tube interlocking within the gap to limit the rotation of the inner tube and the outer tube relative to the gap.
An intraocular lens, "IOL", including: an accommodation actuator having variable optical power; one or more haptic structures configured to hold the IOL in an eye; one or more mechanical-to-electrical transducers disposed to measure mechanical changes in the eye when the IOL is implanted in the eye; and an accommodation controller electrically coupled to the accommodation actuator and the one or more mechanical-to-electrical transducers, wherein the accommodation controller includes logic that when executed by the accommodation controller causes the accommodation controller to perform operations including: receiving an electrical signal from the one or more mechanical-to-electrical transducers in response to the mechanical changes in the eye; and in response to the electrical signal, changing an optical power of the accommodation actuator proportional to the electrical signal; and characterized in that: the one or more mechanical-to-electrical transducers are disposed on the one or more haptic structures to sense deformation of the haptic structures. an accommodation actuator having variable optical power; one or more haptic structures configured to hold the IOL in an eye; one or more mechanical-to-electrical transducers disposed to measure mechanical changes in the eye when the IOL is implanted in the eye; and an accommodation controller electrically coupled to the accommodation actuator and the one or more mechanical-to-electrical transducers, wherein the accommodation controller includes logic that when executed by the accommodation controller causes the accommodation controller to perform operations including: receiving an electrical signal from the one or more mechanical-to-electrical transducers in response to the mechanical changes in the eye; and in response to the electrical signal, changing an optical power of the accommodation actuator proportional to the electrical signal; and characterized in that: the one or more mechanical-to-electrical transducers are disposed on the one or more haptic structures to sense deformation of the haptic structures. receiving an electrical signal from the one or more mechanical-to-electrical transducers in response to the mechanical changes in the eye; and in response to the electrical signal, changing an optical power of the accommodation actuator proportional to the electrical signal; and
A vertical furnace for the continuous heat treatment of a metal strip, in particular an electrical steel strip, wherein the vertical furnace, as seen in a conveying direction of the metal strip, comprises - an inlet zone for the metal strip; - a heating/holding zone with an annealing chamber for heating and holding the metal strip at a certain temperature; - at least one first cooling zone for cooling the metal strip; - at least one deflection device arranged downstream of the first cooling zone for deflecting the metal strip in the direction of an outlet zone for the metal strip, wherein at least one second cooling zone is arranged downstream of the deflection device with respect to the conveying direction, characterized in that the first cooling zone is configured as a radiation cooling zone for the metal strip, wherein a cooling/heating chamber through which a cooling fluid flows is arranged around the process chamber of the first cooling zone, wherein a lateral surface, which faces the cooling/heating chamber, of a wall surrounding the process chamber is acted upon by the cooling fluid. - an inlet zone for the metal strip; - a heating/holding zone with an annealing chamber for heating and holding the metal strip at a certain temperature; - at least one first cooling zone for cooling the metal strip; - at least one deflection device arranged downstream of the first cooling zone for deflecting the metal strip in the direction of an outlet zone for the metal strip, wherein at least one second cooling zone is arranged downstream of the deflection device with respect to the conveying direction, characterized in that the first cooling zone is configured as a radiation cooling zone for the metal strip, wherein a cooling/heating chamber through which a cooling fluid flows is arranged around the process chamber of the first cooling zone, wherein a lateral surface, which faces the cooling/heating chamber, of a wall surrounding the process chamber is acted upon by the cooling fluid.
A source towing system comprising: a housing, and characterised in that a first geophysical source is disposed in the housing so that the first geophysical source is partially exposed to a surrounding environment; and a plurality of ballast tanks are coupled to the housing and configured to at least one of: change a buoyancy of the source towing system; and shift a center of mass of the source towing system. a housing, and characterised in that a first geophysical source is disposed in the housing so that the first geophysical source is partially exposed to a surrounding environment; and a plurality of ballast tanks are coupled to the housing and configured to at least one of: change a buoyancy of the source towing system; and shift a center of mass of the source towing system. change a buoyancy of the source towing system; and shift a center of mass of the source towing system.
A method comprising the steps of: transmitting pilot data to a first and a second node from multiple antennas; receiving a first and a second channel subspace information from the first and the second nodes in response to the transmission; receiving first and second null subspace information from the first and the second nodes in response to the transmission, wherein the first null subspace information uses a matrix to minimize the transmit energy to the first node and the second null subspace information uses a matrix to minimize the energy to the second node; utilizing the first channel subspace information and the second null subspace information to determine antenna weights for the first node; utilizing the second channel subspace information and the first null subspace information to determine antenna weights for the second node; and transmitting data to the first and the second nodes simultaneously utilizing the first and the second antenna weights, respectively. transmitting pilot data to a first and a second node from multiple antennas; receiving a first and a second channel subspace information from the first and the second nodes in response to the transmission; receiving first and second null subspace information from the first and the second nodes in response to the transmission, wherein the first null subspace information uses a matrix to minimize the transmit energy to the first node and the second null subspace information uses a matrix to minimize the energy to the second node; utilizing the first channel subspace information and the second null subspace information to determine antenna weights for the first node; utilizing the second channel subspace information and the first null subspace information to determine antenna weights for the second node; and transmitting data to the first and the second nodes simultaneously utilizing the first and the second antenna weights, respectively.
A permanent formwork for concrete wall, in particular of a building comprising: - blocks made of insulating material of general parallelepided shape which can be assembled together with to the aim of forming an outer insulating wall of a building, - elements forming the inner wall of the building, - horizontal spacers equipped with: - first means for fastening onto the insulating blocks, and - second means for fastening onto the elements forming the inner wall of the building, the elements intended to constitute the inner wall of the building comprising: - profile bars forming vertical stiffeners, and - a metallic wire mesh fastened onto the profile bars, characterized in that each spacer is of a general rectangular shape, having an outer side-rail and an inner side-rail which are connected together by at least two end cross-pieces (13, 14), the outer side-rail and the two end cross-pieces (13, 14) forming one of the first means for fastening the spacer onto the blocks made of insulating material. - blocks made of insulating material of general parallelepided shape which can be assembled together with to the aim of forming an outer insulating wall of a building, - elements forming the inner wall of the building, - horizontal spacers equipped with: - first means for fastening onto the insulating blocks, and - second means for fastening onto the elements forming the inner wall of the building, the elements intended to constitute the inner wall of the building comprising: - profile bars forming vertical stiffeners, and - a metallic wire mesh fastened onto the profile bars, characterized in that each spacer is of a general rectangular shape, having an outer side-rail and an inner side-rail which are connected together by at least two end cross-pieces (13, 14), the outer side-rail and the two end cross-pieces (13, 14) forming one of the first means for fastening the spacer onto the blocks made of insulating material.
Method for preparing a monoglyceride hydrate product comprising the steps of: a. providing a monoglyceride composition having an iodine value of 15 or lower and mixing said composition with water; b. cooling the mixture of step a) below the Krafft temperature of the monoglyceride composition, such that at least a part of the monoglycerides crystallize; c. mixing the mixture of step b) with a co-emulsifier comprising non-hydrogenated monoglycerides and/or diglycerides and having an iodine value of 25 or higher. d. homogenizing the mixture of step c). a. providing a monoglyceride composition having an iodine value of 15 or lower and mixing said composition with water; b. cooling the mixture of step a) below the Krafft temperature of the monoglyceride composition, such that at least a part of the monoglycerides crystallize; c. mixing the mixture of step b) with a co-emulsifier comprising non-hydrogenated monoglycerides and/or diglycerides and having an iodine value of 25 or higher. d. homogenizing the mixture of step c).
A solar module, comprising: a plurality of solar cells, wherein each respective solar cell comprises: a multi-layer semiconductor structure; a first electrode positioned on a first surface of the multi-layer semiconductor structure; and a second electrode positioned on a second surface of the multi-layer semiconductor structure, wherein the first and second electrodes each comprises a metal grid, wherein each metal grid comprises a plurality of finger lines and a single busbar coupled to the finger lines, wherein the single busbar is configured to collect current from the finger lines, wherein a first single busbar of the first electrode and a second single busbar of the second electrode are located at opposite edges of the solar cell, and wherein two adjacent solar cells are coupled in such a way that a first single busbar of a first solar cell overlaps with a second single busbar of an adjacent solar cell. a plurality of solar cells, wherein each respective solar cell comprises: a multi-layer semiconductor structure; a first electrode positioned on a first surface of the multi-layer semiconductor structure; and a second electrode positioned on a second surface of the multi-layer semiconductor structure, wherein the first and second electrodes each comprises a metal grid, wherein each metal grid comprises a plurality of finger lines and a single busbar coupled to the finger lines, wherein the single busbar is configured to collect current from the finger lines, wherein a first single busbar of the first electrode and a second single busbar of the second electrode are located at opposite edges of the solar cell, and wherein two adjacent solar cells are coupled in such a way that a first single busbar of a first solar cell overlaps with a second single busbar of an adjacent solar cell. a multi-layer semiconductor structure; a first electrode positioned on a first surface of the multi-layer semiconductor structure; and a second electrode positioned on a second surface of the multi-layer semiconductor structure, wherein the first and second electrodes each comprises a metal grid, wherein each metal grid comprises a plurality of finger lines and a single busbar coupled to the finger lines, wherein the single busbar is configured to collect current from the finger lines, wherein a first single busbar of the first electrode and a second single busbar of the second electrode are located at opposite edges of the solar cell, and wherein two adjacent solar cells are coupled in such a way that a first single busbar of a first solar cell overlaps with a second single busbar of an adjacent solar cell.
A wind turbine generator comprising: a rotor that rotates by wind power; a generator that is driven by rotation of the rotor; an inverter device; and characterized in that it further comprises a control device that includes a converter control unit configured to control the inverter device and a pitch control unit configured to control a pitch angle of blades provided with the rotor, wherein the control device is configured to control a power output of the generator to increase while a rotational speed of the generator decreases by causing the pitch control unit to control the pitch angle of the blades to be set to "fine" and by causing the converter control unit to control the inverter device to increase torque of the generator and to convert inertial energy of the rotor to the power output and recover the power output, when a frequency of a utility grid becomes smaller than or equal to a predetermined rated frequency and when the rotational speed of the generator is greater than or equal to a first predetermined value, wherein the control device is configured to control the power output of the generator to decrease by causing the converter control unit to control the inverter device when the rotational speed of the generator becomes smaller than the first predetermined value. a rotor that rotates by wind power; a generator that is driven by rotation of the rotor; an inverter device; and characterized in that it further comprises a control device that includes a converter control unit configured to control the inverter device and a pitch control unit configured to control a pitch angle of blades provided with the rotor, wherein the control device is configured to control a power output of the generator to increase while a rotational speed of the generator decreases by causing the pitch control unit to control the pitch angle of the blades to be set to "fine" and by causing the converter control unit to control the inverter device to increase torque of the generator and to convert inertial energy of the rotor to the power output and recover the power output, when a frequency of a utility grid becomes smaller than or equal to a predetermined rated frequency and when the rotational speed of the generator is greater than or equal to a first predetermined value, wherein the control device is configured to control the power output of the generator to decrease by causing the converter control unit to control the inverter device when the rotational speed of the generator becomes smaller than the first predetermined value.
A method comprising: controllably modifying, at a first wireless device, an original value of at least one PHY-layer signal parameter for a signal according to at least one pre-determined varying signal modification process in order to dither the original value of the at least one PHY-layer signal parameter, the at least one PHY-layer signal parameter comprising: amplitude, frequency, timestamp, gain, signal equalization; or any combination thereof; and transmitting, to a second wireless device, the signal with a controllably modified value of the at least one PHY-layer signal parameter, the transmitted signal configured to facilitate position determination of the second wireless device when the original, undithered, value of the at least one PHY-layer signal parameter is determined at the second wireless device from the controllably modified value of the at least one PHY-layer signal parameter by applying at least one inverse process of the at least one pre-determined varying signal modification process to the signal with the controllably modified value of the at least one PHY-layer signal parameter in order to recover at the second wireless device the original, undithered, value of the at least one PHY-layer signal parameter, and performing location determination operations based, at least in part, on the original, undithered, value of the at least one PHY-layer signal parameter recovered at the second wireless device through application of the at least one inverse process to the controllably modified value of the at least one PHY-layer signal parameter. controllably modifying, at a first wireless device, an original value of at least one PHY-layer signal parameter for a signal according to at least one pre-determined varying signal modification process in order to dither the original value of the at least one PHY-layer signal parameter, the at least one PHY-layer signal parameter comprising: amplitude, frequency, timestamp, gain, signal equalization; or any combination thereof; and transmitting, to a second wireless device, the signal with a controllably modified value of the at least one PHY-layer signal parameter, the transmitted signal configured to facilitate position determination of the second wireless device when the original, undithered, value of the at least one PHY-layer signal parameter is determined at the second wireless device from the controllably modified value of the at least one PHY-layer signal parameter by applying at least one inverse process of the at least one pre-determined varying signal modification process to the signal with the controllably modified value of the at least one PHY-layer signal parameter in order to recover at the second wireless device the original, undithered, value of the at least one PHY-layer signal parameter, and performing location determination operations based, at least in part, on the original, undithered, value of the at least one PHY-layer signal parameter recovered at the second wireless device through application of the at least one inverse process to the controllably modified value of the at least one PHY-layer signal parameter.
Fuel pump, in particular for a fuel system of a piston-type internal combustion engine, having a housing and having at least one part (24, 26) which bears at least indirectly against a housing region and which moves during operation, wherein the housing region comprises a thermoplastic material, characterized in that the thermoplastic material is applied as a coating to the housing region on that side thereof which faces toward the moving part (24, 26), in that the thermoplastic material is a polyether ether ketone, in that the thermoplastic material is reinforced with fibres, in particular carbon fibres, and in that the material of at least the housing region to which the coating is applied comprises or is aluminium.