mhurhangee/ep-ind-claims huggingface dataset:
A contactless power supply for inductively providing power to one or more remote devices (306, 338, 340, 342), said contactless power supply comprising: a resonant circuit having a primary for transferring power to said one or more remote devices by an inductive coupling; an inverter coupled to the resonant circuit, the inverter supplying power from a power source to said resonant circuit; a receiver for receiving power information from said one or more remote devices (306, 338, 340, 342); and a controller coupled to said receiver and to said resonant circuit for adapting said contactless power supply in response to at least a further one of said one or more remote devices (306, 338, 340, 342) no longer being present while at least a first one of said one or more remotes devices is present or a further remote device in addition to said at least one first one of said one or more remote devices (306, 338, 340, 342) being present, wherein said controller is programmed to determine an optimal setting for said contactless power supply as a function of said received power information, wherein said optimal setting includes a rail voltage of said power source, a resonant frequency of said resonant circuit or a duty cycle of said inverter, and wherein said controller is programmed to set said optimal setting. a resonant circuit having a primary for transferring power to said one or more remote devices by an inductive coupling; an inverter coupled to the resonant circuit, the inverter supplying power from a power source to said resonant circuit; a receiver for receiving power information from said one or more remote devices (306, 338, 340, 342); and a controller coupled to said receiver and to said resonant circuit for adapting said contactless power supply in response to at least a further one of said one or more remote devices (306, 338, 340, 342) no longer being present while at least a first one of said one or more remotes devices is present or a further remote device in addition to said at least one first one of said one or more remote devices (306, 338, 340, 342) being present, wherein said controller is programmed to determine an optimal setting for said contactless power supply as a function of said received power information, wherein said optimal setting includes a rail voltage of said power source, a resonant frequency of said resonant circuit or a duty cycle of said inverter, and wherein said controller is programmed to set said optimal setting.
An ionic liquid comprising fluorine-containing phosphate ester anions of formula below wherein Rf is a perfluoroalkyl group of 1 to 14 carbon atoms, and R 1 is a linear, branched or cyclic alkyl group of 1 to 8 carbon atoms or an aromatic hydrocarbon group of 6 to 10 carbon atoms.
A power point comprising: - at least one proximity sensor, - at least two light sources (26, 28), - means for processing the output signal from said proximity sensor and for temporarily activating said light source (26, 28), - an electrical insert located at said light source (26, 28) and operable directly by the user, wherein at least one of said light sources is for locating the power point and in that at least one of said light sources is for identifying said insert operable by the user. - at least one proximity sensor, - at least two light sources (26, 28), - means for processing the output signal from said proximity sensor and for temporarily activating said light source (26, 28), - an electrical insert located at said light source (26, 28) and operable directly by the user,
An additive manufacturing system, comprising: a first laser to emit a first light beam at a first wavelength; a second laser to emit a second light beam at a second wavelength different from the first wavelength; beam shaping optics that form a common beam, the beam shaping optics including at least one wavelength filter to pass the first light beam of the first wavelength and reflect the second light beam of the second wavelength in a common beam; an optically addressable light patterning unit to receive the common light beam and emit light as a two-dimensional patterned beam, with the optically addressable light patterning unit rejecting energy not required to form the two-dimensional patterned beam; an image relay to receive the two-dimensional patterned beam and focus it as a two-dimensional image on a powder bed; and a rejected light energy handling unit to reuse the rejected light energy by repatterning and directing it against the powder bed. a first laser to emit a first light beam at a first wavelength; a second laser to emit a second light beam at a second wavelength different from the first wavelength; beam shaping optics that form a common beam, the beam shaping optics including at least one wavelength filter to pass the first light beam of the first wavelength and reflect the second light beam of the second wavelength in a common beam; an optically addressable light patterning unit to receive the common light beam and emit light as a two-dimensional patterned beam, with the optically addressable light patterning unit rejecting energy not required to form the two-dimensional patterned beam; an image relay to receive the two-dimensional patterned beam and focus it as a two-dimensional image on a powder bed; and a rejected light energy handling unit to reuse the rejected light energy by repatterning and directing it against the powder bed.
A mechanical impedance tuner with at least two probe carriages, the tuner comprising: a center conductor; at least two probe carriages mounted for movement along an axis parallel to the center conductor, said at least two probe carriages including a first probe carriage and a second probe carriage; each probe carriage having at least N probes (P1, P2,...) where N is an integer equal to or greater than one, and at least one of said N probes of one of said probe carriages has a different nominal geometry from all probes on at least one of the other carriages; a carriage drive system for moving each probe carriage independently along said axis parallel to the center conductor; a probe drive system for moving each probe independently in a direction transverse to the center conductor; and a controller configured to operate said probe carriage drive system and said probe drive system. a center conductor; at least two probe carriages mounted for movement along an axis parallel to the center conductor, said at least two probe carriages including a first probe carriage and a second probe carriage; each probe carriage having at least N probes (P1, P2,...) where N is an integer equal to or greater than one, and at least one of said N probes of one of said probe carriages has a different nominal geometry from all probes on at least one of the other carriages; a carriage drive system for moving each probe carriage independently along said axis parallel to the center conductor; a probe drive system for moving each probe independently in a direction transverse to the center conductor; and a controller configured to operate said probe carriage drive system and said probe drive system.
A process for the preparation of a complex of sulforaphane and cyclodextrin or a complex of sulforaphane and a hydroxyalkyl cyclodextrin derivative, the process comprising: (i) reacting, in an aqueous solvent, a compound of formula A: with an oxidizing agent and in the presence of a catalyst to form sulforaphane; and (ii) mixing the sulforaphane from step (i) with cyclodextrin or a hydroxyalkyl cyclodextrin derivative in an aqueous solvent to form a precipitate of the sulforaphane-cyclodextrin complex or the sulforaphane-hydroxyalkyl cyclodextrin derivative complex; wherein the aqueous solvent is water and the catalyst is selected from a cyclodextrin, a hydroxyalkyl cyclodextrin derivative, Fuller's Earth, and organic or inorganic acids and wherein the oxidizing agent is hydrogen peroxide or a water soluble or miscible organic per-acid, or a mixture thereof (i) reacting, in an aqueous solvent, a compound of formula A: with an oxidizing agent and in the presence of a catalyst to form sulforaphane; and (ii) mixing the sulforaphane from step (i) with cyclodextrin or a hydroxyalkyl cyclodextrin derivative in an aqueous solvent to form a precipitate of the sulforaphane-cyclodextrin complex or the sulforaphane-hydroxyalkyl cyclodextrin derivative complex;
A passenger information detection device comprising: an acquisition unit configured to acquire an image imaged by an imaging device that is provided in an interior space of a vehicle to image a passenger seated on a seat (10A, 10D) and a detection value of a load sensor (16, 16F, 16R) provided on the seat; a first calculation unit configured to calculate first information that is information on a face of the passenger from the image; and a second calculation unit configured to calculate second information that is information on a body size of the passenger based on the first information and the detection value; wherein the first information includes a position of the face; and the second calculation unit is configured to calculate a center of gravity of a distributed load acting on the seat based on the position of the face, and to correct the detection value based on a relationship between the center of gravity and a position of the load sensor; the passenger information detection device being characterized in that the first information further includes a tilt of the face, and the second calculation unit is configured to calculate a sitting height of the passenger based on the position of the face and the tilt of the face, and to calculate the center of gravity based on the sitting height and the tilt of the face. an acquisition unit configured to acquire an image imaged by an imaging device that is provided in an interior space of a vehicle to image a passenger seated on a seat (10A, 10D) and a detection value of a load sensor (16, 16F, 16R) provided on the seat; a first calculation unit configured to calculate first information that is information on a face of the passenger from the image; and a second calculation unit configured to calculate second information that is information on a body size of the passenger based on the first information and the detection value; wherein the first information includes a position of the face; and the second calculation unit is configured to calculate a center of gravity of a distributed load acting on the seat based on the position of the face, and to correct the detection value based on a relationship between the center of gravity and a position of the load sensor; the passenger information detection device being characterized in that the first information further includes a tilt of the face, and the second calculation unit is configured to calculate a sitting height of the passenger based on the position of the face and the tilt of the face, and to calculate the center of gravity based on the sitting height and the tilt of the face.
An apparatus operable to insert an intraosseous device into a bone and associated bone marrow comprising: a housing with a handle extending therefrom and a drive shaft extending from an opening in the housing, the drive shaft operable to releasably engage the intraosseous device, the handle configured as an elongated, hollow container sized to receive a power supply; a motor disposed within a first segment of the housing and rotatably engaged with the drive shaft; a power supply and associated electrical circuit operable to power the motor, the power supply disposed within the handle; a gear assembly disposed between and rotatably engaged with the motor and the drive shaft, wherein the gear assembly is disposed within a second segment of the housing; the motor and the gear assembly having respective generally cylindrical configurations; the gear assembly having a nominal outside diameter portion smaller than a corresponding nominal outside diameter portion of the motor; wherein the rotational axis of the drive shaft is aligned with the rotational axis of the motor; characterized in that the first segment of the housing has a larger nominal outside diameter than the second segment of the housing. a housing with a handle extending therefrom and a drive shaft extending from an opening in the housing, the drive shaft operable to releasably engage the intraosseous device, the handle configured as an elongated, hollow container sized to receive a power supply; a motor disposed within a first segment of the housing and rotatably engaged with the drive shaft; a power supply and associated electrical circuit operable to power the motor, the power supply disposed within the handle; a gear assembly disposed between and rotatably engaged with the motor and the drive shaft, wherein the gear assembly is disposed within a second segment of the housing; the motor and the gear assembly having respective generally cylindrical configurations; the gear assembly having a nominal outside diameter portion smaller than a corresponding nominal outside diameter portion of the motor; wherein the rotational axis of the drive shaft is aligned with the rotational axis of the motor; characterized in that the first segment of the housing has a larger nominal outside diameter than the second segment of the housing.
An engineered wood structural system made of engineered wood components, including: at least one vertical structural element with several structural nodes on different vertical positions, corresponding to different floor levels; multiple horizontal structural element (20, 120), each made up of an upper horizontal board and a lower horizontal board facing each other, separated to each other in a vertical direction and rigidly connected to each other through second spacers comprised between said upper and lower horizontal boards (21, 22); wherein multiple horizontal structural elements (20, 120) of the same floor level are supported on the same structural node and are rigidly connected to each other through an upper connector at least partially overlapped, and attached, to all the horizontal structural elements (20, 120) supported in said structural node to transfer horizontal traction loads between the upper horizontal boards of the connected horizontal structural elements (20, 120); characterized in that the multiple horizontal structural elements (20, 120) supported on the same structural node are rigidly connected to each other also through a lower connector placed between the horizontal structural elements (20, 120) converging in said structural node and in close contact with them to transfer horizontal compression loads between the converging horizontal structural elements (20, 120). at least one vertical structural element with several structural nodes on different vertical positions, corresponding to different floor levels; multiple horizontal structural element (20, 120), each made up of an upper horizontal board and a lower horizontal board facing each other, separated to each other in a vertical direction and rigidly connected to each other through second spacers comprised between said upper and lower horizontal boards (21, 22); wherein multiple horizontal structural elements (20, 120) of the same floor level are supported on the same structural node and are rigidly connected to each other through an upper connector at least partially overlapped, and attached, to all the horizontal structural elements (20, 120) supported in said structural node to transfer horizontal traction loads between the upper horizontal boards of the connected horizontal structural elements (20, 120); characterized in that the multiple horizontal structural elements (20, 120) supported on the same structural node are rigidly connected to each other also through a lower connector placed between the horizontal structural elements (20, 120) converging in said structural node and in close contact with them to transfer horizontal compression loads between the converging horizontal structural elements (20, 120).
A dialysis acid precursor composition for use during preparation of a dialysis acid concentrate solution and for mixing with water, a sodium containing concentrate, and a bicarbonate containing concentrate into a ready-for-use dialysis solution, wherein said dialysis acid precursor composition consists of powder components comprising glucose, at least one dry acid and at least one calcium salt, and magnesium salt, and optionally potassium salt, wherein said glucose and said at least one calcium salt are present as anhydrous components in said dialysis acid precursor composition, at least one of said magnesium salt is chosen from the group comprising magnesium chloride with a degree of hydration, and wherein said dialysis acid precursor composition is sealed in a moisture-resistant container with a water vapour transmission rate less than 0.3 g/m 2 /d at 38°C/90%RH.
A method for determining at least one characteristic for optimizing the wear position of a pair of spectacles on the face of a wearer, said optimizing characteristic being a geometrico-morphological (EG, ED, HD, HG) characteristic, a head postural characteristic (α) or a behavioral characteristic, said pair of spectacles comprising a frame and two lenses (150G, 150D), comprising steps of: a) illuminating at least part of the head of the wearer using at least one infrared light source (220, 230, 240); b) acquiring, via an infrared image sensor, an image (301, 302, 303) of the head of the wearer illuminated by the infrared light source (220, 230, 240), in which image the pair of spectacles and the eyes of the wearer appear; c) locating, in the image (301, 302, 303) acquired in step b), reflections (160G, 160D, 161G, 161D) of the infrared light source (220, 230, 240) reflected by the two lenses (150G, 150D) of the pair of spectacles and at least one corneal reflection (162D, 162G) of the infrared light source (220, 230, 240) reflected by one of the two eyes of the wearer; characterized by a step: d) of deducing by a processing unit said geometrico-morphological (EG, ED, HD, HG), postural (α) or behavioral characteristic depending on the distances separating an observable axis A3 of the frame from the centers of the reflections (160G, 160D, 161G, 161D) and said corneal reflection (162D, 162G) in said image (301, 302, 303). a) illuminating at least part of the head of the wearer using at least one infrared light source (220, 230, 240); b) acquiring, via an infrared image sensor, an image (301, 302, 303) of the head of the wearer illuminated by the infrared light source (220, 230, 240), in which image the pair of spectacles and the eyes of the wearer appear; c) locating, in the image (301, 302, 303) acquired in step b), reflections (160G, 160D, 161G, 161D) of the infrared light source (220, 230, 240) reflected by the two lenses (150G, 150D) of the pair of spectacles and at least one corneal reflection (162D, 162G) of the infrared light source (220, 230, 240) reflected by one of the two eyes of the wearer;
A space suit to be worn by an occupant riding in or on a rocket at high altitudes, said space suit comprising an inner suit; wherein said space suit further comprises: a rigid outer shell, said rigid outer suit and inner suit defining an interior volume therebetween; and volume-changing structure for changing the volume of said interior volume according to the respiration of the occupant, said volume-changing structure comprising a powered piston, which is movable in and out of a cylinder, configured to regulate said interior volume in said space suit, and piston-powering apparatus for regulating the operation of said piston according to the respiration of the occupant and wherein said rigid outer shell includes rigid shell arms, legs and torso for receiving the arms, legs and torso of the occupant and further comprising: internal sleeves for receiving the respective arms and legs of the occupant, said internal sleeves being made of a soft material, said internal sleeves extending throughout the interior of said respective rigid shell arms and legs and having powered joints; elastic tendons tangent to said respective internal sleeves and connected to said rigid shell arms and legs for maintaining the arms and legs of the occupant centred in said rigid shell arms and legs; and an electronic apparatus which is operatively connected to said powered joints and to said elastic tendons, said electronic apparatus is configured to sense the tension in said elastic tendons and to provide feedback for the sensed tension to direct said powered joints to mirror the motion of the occupant while keeping the occupant centered within the space suit.
A drive system for a marine vessel comprising a first housing fixed to an opening in a hull of the marine vessel, and a drive unit arranged inside the first housing, where the drive unit is provided with a second housing comprising a drive motor and a marine propulsion system attached to the second housing, where the marine propulsion system comprises a leg and a hub provided with at least one propeller, where the drive system comprises an adjustment mechanism arranged to adjust the position of the drive unit in the first housing, where the drive system is provided with a parking position in which the marine propulsion system is positioned inside the first housing and a drive position in which the marine propulsion system is positioned outside of the first housing, characterized in that the drive system is provided with a programmable automatic cleaning sequence in which the drive unit is moved from the parking position to the drive position and back to the parking position at least once when the marine vessel is parked with the drive unit in the parking position, where the cleaning sequence is adapted to mechanically clean the inside of the first housing from the movement of the drive unit from the parking position to the drive position back to the parking position.
A portable lock mounting assembly (20, 20') comprising: a body (22, 22') defining a lock retaining mechanism and a contact surfaced; a strap having first and second ends attachable to the body (22, 22') such that a loop facing the contact surface is defined by the strap; and a cam member supported by the body (22, 22') adjacent the contact surface and pivotal between a first position wherein the cam member extends generally parallel to the contact surface and a second position wherein the cam member extends at an angle relative to the contact surface, characterized in that a secondary contact surface (36, 39) is defined opposite to the contact surface with the cam member positioned between the contact surface and the secondary contact surface (36, 39), wherein in the first position the cam member applies substantially no biasing force on the secondary contact surface (36, 39), and in the second position the cam member biases the secondary contact surface (36, 39) away from the contact surface, causing an increased tension in the strap. a body (22, 22') defining a lock retaining mechanism and a contact surfaced; a strap having first and second ends attachable to the body (22, 22') such that a loop facing the contact surface is defined by the strap; and a cam member supported by the body (22, 22') adjacent the contact surface and pivotal between a first position wherein the cam member extends generally parallel to the contact surface and a second position wherein the cam member extends at an angle relative to the contact surface, characterized in that a secondary contact surface (36, 39) is defined opposite to the contact surface with the cam member positioned between the contact surface and the secondary contact surface (36, 39), wherein in the first position the cam member applies substantially no biasing force on the secondary contact surface (36, 39), and in the second position the cam member biases the secondary contact surface (36, 39) away from the contact surface, causing an increased tension in the strap.