mhurhangee/ep-ind-claims huggingface dataset:
A turboprop engine assembly for an aircraft, the turboprop engine assembly comprising: an internal combustion engine having a liquid coolant system, the internal combustion engine drivingly engaged to a propeller; an air duct in fluid communication with an environment of the aircraft; a heat exchanger received within the air duct, the heat exchanger having coolant passages in fluid communication with the liquid coolant system and air passages in heat exchange relationship with the coolant passages, the air passages in fluid communication with the air duct; and an exhaust duct in fluid communication with an exhaust of the internal combustion engine, the exhaust duct having an outlet positioned within the air duct downstream of the heat exchanger and upstream of an outlet of the air duct, the outlet of the exhaust duct spaced inwardly from a peripheral wall of the air duct so that, in use, a flow of cooling air through the air duct surrounds a flow of exhaust gases out of the exhaust duct, characterised in that: the internal combustion engine is a Wankel rotary engine including a rotor having three apex portions mounted for eccentric revolutions within an internal cavity defined in a housing, the internal cavity having an epitrochoid shape with two lobes. an internal combustion engine having a liquid coolant system, the internal combustion engine drivingly engaged to a propeller; an air duct in fluid communication with an environment of the aircraft; a heat exchanger received within the air duct, the heat exchanger having coolant passages in fluid communication with the liquid coolant system and air passages in heat exchange relationship with the coolant passages, the air passages in fluid communication with the air duct; and an exhaust duct in fluid communication with an exhaust of the internal combustion engine, the exhaust duct having an outlet positioned within the air duct downstream of the heat exchanger and upstream of an outlet of the air duct, the outlet of the exhaust duct spaced inwardly from a peripheral wall of the air duct so that, in use, a flow of cooling air through the air duct surrounds a flow of exhaust gases out of the exhaust duct,
A patient monitoring system, the system comprising: a sensor comprising energy emitters and one or more detectors, the energy emitters configured to be located on one side of a patient monitoring site and the one or more detectors configured to be located on an opposite side of the patient monitoring site, the energy emitters configured to emit light signals of at least two different wavelengths including a red wavelength and an infrared wavelength, the one or more detectors configured to detect attenuated energy and output signals representative of the attenuated energy to a patient monitor for processing; the patient monitor comprising a processor configured to: determine the patient's oxygen saturation level; in response to the patient's oxygen saturation level maxing out at 100%, calculate a hypersaturation index, indicating an increased level of dissolved oxygen in the plasma or indicating the partial pressure of oxygen in the blood, based on a ratio of the attenuated energy of the at least two different wavelengths; and a display configured to display the hypersaturation index. a sensor comprising energy emitters and one or more detectors, the energy emitters configured to be located on one side of a patient monitoring site and the one or more detectors configured to be located on an opposite side of the patient monitoring site, the energy emitters configured to emit light signals of at least two different wavelengths including a red wavelength and an infrared wavelength, the one or more detectors configured to detect attenuated energy and output signals representative of the attenuated energy to a patient monitor for processing; the patient monitor comprising a processor configured to: determine the patient's oxygen saturation level; in response to the patient's oxygen saturation level maxing out at 100%, calculate a hypersaturation index, indicating an increased level of dissolved oxygen in the plasma or indicating the partial pressure of oxygen in the blood, based on a ratio of the attenuated energy of the at least two different wavelengths; and determine the patient's oxygen saturation level; in response to the patient's oxygen saturation level maxing out at 100%, calculate a hypersaturation index, indicating an increased level of dissolved oxygen in the plasma or indicating the partial pressure of oxygen in the blood, based on a ratio of the attenuated energy of the at least two different wavelengths; and a display configured to display the hypersaturation index.
A connector configured to be installed on a printed circuit board, PCB, and configured to be electrically connected to an external terminal, the connector comprising: a first port that is disposable on the PCB and is configured to accept insertion of a first external terminal in a first direction; and a second port that is layered on top of the first port and is configured to accept insertion of a second external terminal into the second port in a second direction that is offset by a non-zero angle (a) from the first direction, wherein the first direction and the second direction are perpendicular to the direction of layering of the first port and the second port, and form the non-zero angle (α) therebetween on a plane that is perpendicular to the direction of layering of the first port and the second port. a first port that is disposable on the PCB and is configured to accept insertion of a first external terminal in a first direction; and a second port that is layered on top of the first port and is configured to accept insertion of a second external terminal into the second port in a second direction that is offset by a non-zero angle (a) from the first direction, wherein the first direction and the second direction are perpendicular to the direction of layering of the first port and the second port, and form the non-zero angle (α) therebetween on a plane that is perpendicular to the direction of layering of the first port and the second port.
An interchangeable lens that is removably attachable to a camera body comprising: a clock receiving unit that receives a first clock signal from the camera body; a clock transmitting unit that outputs a second clock signal (HCLK) to the camera body; a moving member that is movable within the interchangeable lens; a first communication unit that performs first communication in which an instruction is received from the camera body in synchronization with the first clock signal, and information of the interchangeable lens is transmitted to the camera body in synchronization with the first clock signal; and a second communication unit that performs second communication in which data transmissions, each data transmission comprising first information indicating a position of the moving member and second information to be used for calculation of a drive amount of the moving member, are repeatedly transmitted to the camera body in synchronization with the second clock signal (HCLK), wherein in the second communication each data transmission, comprising the first information and the second information, is transmitted in synchronization with the second clock signal in a communication time (Ttransmit) during which the second clock signal is periodically output, and wherein in the second communication, once transmission of a data transmission has been completed, the lens-side second communication unit stops outputting the second clock signal until a time point when transmission of the next data transmission is started. a clock receiving unit that receives a first clock signal from the camera body; a clock transmitting unit that outputs a second clock signal (HCLK) to the camera body; a moving member that is movable within the interchangeable lens; a first communication unit that performs first communication in which an instruction is received from the camera body in synchronization with the first clock signal, and information of the interchangeable lens is transmitted to the camera body in synchronization with the first clock signal; and a second communication unit that performs second communication in which data transmissions, each data transmission comprising first information indicating a position of the moving member and second information to be used for calculation of a drive amount of the moving member, are repeatedly transmitted to the camera body in synchronization with the second clock signal (HCLK), wherein in the second communication each data transmission, comprising the first information and the second information, is transmitted in synchronization with the second clock signal in a communication time (Ttransmit) during which the second clock signal is periodically output, and wherein in the second communication, once transmission of a data transmission has been completed, the lens-side second communication unit stops outputting the second clock signal until a time point when transmission of the next data transmission is started.
A heat curable liquid rubber composition comprising: a. a liquid polyene component, wherein the liquid polyene component is a liquid polyene comprising a polyene backbone or a blend of liquid polyenes each comprising a polyene backbone, wherein the liquid polyene component comprises on a total molar basis, as polymerized units, i. at least one monomer that results in at least 45 molar percent of C2-C13 pendant groups along the polyene backbone; or ii. at least one monomer that results in at least 20 molar percent of C2-C5 pendant groups along the backbone of the polyene, and at least one monomer that results in at least 7 molar percent of C6-C13 pendant groups along the backbone of the polyene; and b. at least one heat activated crosslinking agent; and wherein, after curing, the heat curable liquid rubber composition yields a cured rubber composition comprising: i) a loss factor (tan δ) greater than 0.51 when measured at 50Hz frequency, 3μm amplitude, and temperatures of -10° C to 45° C; ii) a maximum loss factor temperature greater than -10°C; and iii) a swelling ratio from 40% to 170% by weight, as measured by equilibrium weight gain in toluene at 25° C. a. a liquid polyene component, wherein the liquid polyene component is a liquid polyene comprising a polyene backbone or a blend of liquid polyenes each comprising a polyene backbone, wherein the liquid polyene component comprises on a total molar basis, as polymerized units, i. at least one monomer that results in at least 45 molar percent of C2-C13 pendant groups along the polyene backbone; or ii. at least one monomer that results in at least 20 molar percent of C2-C5 pendant groups along the backbone of the polyene, and at least one monomer that results in at least 7 molar percent of C6-C13 pendant groups along the backbone of the polyene; and i. at least one monomer that results in at least 45 molar percent of C2-C13 pendant groups along the polyene backbone; or ii. at least one monomer that results in at least 20 molar percent of C2-C5 pendant groups along the backbone of the polyene, and at least one monomer that results in at least 7 molar percent of C6-C13 pendant groups along the backbone of the polyene; and b. at least one heat activated crosslinking agent; and i) a loss factor (tan δ) greater than 0.51 when measured at 50Hz frequency, 3μm amplitude, and temperatures of -10° C to 45° C; ii) a maximum loss factor temperature greater than -10°C; and iii) a swelling ratio from 40% to 170% by weight, as measured by equilibrium weight gain in toluene at 25° C.
A flywheel assembly for storing and releasing energy comprising: a substantially cylindrical rotor assembly (32, 34, 36, 38) within a vacuum chamber, said assembly comprising a plurality of rotors, each rotor having an inner and outer surface and each rotor having a different radius; at least one stator assembly, each stator assembly (40, 42, 43, 45, 46) in close proximity with a rotor assembly (32, 34, 36, 38); at least one rotor magnet (34, 36, 38) affixed to the inner surface of each of the plurality of rotors; at least one stator magnet affixed to each of said at least one stator; and a high temperature superconducting bearing (45, 48) in communication with the rotor and stator assemblies; wherein the rotor magnet (34, 36) and stator magnet are positioned relative to one another to facilitate levitation of the rotor during operation; and wherein the assembly comprises an open-core architecture. a substantially cylindrical rotor assembly (32, 34, 36, 38) within a vacuum chamber, said assembly comprising a plurality of rotors, each rotor having an inner and outer surface and each rotor having a different radius; at least one stator assembly, each stator assembly (40, 42, 43, 45, 46) in close proximity with a rotor assembly (32, 34, 36, 38); at least one rotor magnet (34, 36, 38) affixed to the inner surface of each of the plurality of rotors; at least one stator magnet affixed to each of said at least one stator; and a high temperature superconducting bearing (45, 48) in communication with the rotor and stator assemblies;
A drapery system (100, 108, 110, 117, 128) comprising an elongate support member (2,130), which defines an elongate space (4,150) for housing a drapery track (38,114,118), wherein the elongate support member (2,130) comprises a first elongate plate-shaped portion (6,142), which extends in a longitudinal direction of the elongate support member (2,130) and defines the elongate space (4,150) in one direction, wherein the first plate-shaped portion (6,142) forms a back section of the elongate support member (2,130) and wherein the elongate support member comprises a second and third plate-shaped portion (8,10), which extend perpendicularly relative to the first plate-shaped portion (6,142) and are spaced in a width direction of the elongate support member (2,130) and wherein the first, second and third plate-shaped portions (6,8,10,142) define the elongate space, wherein the elongate support member (2,130) comprises at least one connector (28,30,132,134) projecting from the first plate-shaped portion (6,142) in the elongate space, and wherein the drapery system comprises a connection structure (36,112,124,136), which is adapted for engagement with the drapery track (38,114,118) and with the at least one connector (28,30,132,134), wherein the connection structure (36,112,124,136) is adapted to be a spacer between the elongate support member (4,130) and the drapery track (38,114,118), wherein the connection structure (36,112,124,136) comprises a first contact surface for contacting an inner surface of the elongate support member in a first direction and a second contact surface for contacting the drapery track in a second direction, which is opposite the first direction, and wherein the connection structure (36,112,124,136) has an extension between the first contact surface and the second contact surface that is adapted to a height of the drapery track (38,114,118) so that a lower surface of the drapery track is substantially flush with a lower surface of the elongate support member (4,130), wherein the connection structure (36,112,124,136) comprises a first body (48,116,126,138), which is adapted to be positioned between the drapery track (38,114,118) and the first elongate plate-shaped portion (6,142) of the elongate support member, wherein the first body (48,116,126,138) comprises a connection means (58,148), which is accessible from a side of the body, which is adapted to face the drapery track (38,114,118) and wherein the connection means comprises a through-hole and wherein the connection structure comprises a fastener for being received in the through hole and fastening to the at least one connector (28,30) of the elongate support member (2,130).
An 8-bit microprocessor comprising a Harvard architecture and comprising a program memory having a 16-bit instruction word size and a data memory having an 8-bit data size wherein an instruction word has a payload size for an address of up to 12 bits; and a central processing unit, CPU, coupled with the program memory and the data memory; characterized by an indirect addressing register operable to address up to 16KB of data memory; and a bank select register configured to select one of up to 64 memory banks; wherein the CPU is configured to execute a first move instruction (MOVFF; MOVSF) comprising two instruction words and configured to only access the lower 4KB of the data memory and a second move instruction (MOVFFL; MOVSFL) comprising three instruction words and configured to access the entire data memory, wherein a first instruction word of the second move instruction (MOVFFL) comprises 4 bits of a source address and a second instruction word of the second move instruction (MOVFFL) comprises 10 bits of the source address and 2 bits of a destination address and a third instruction word of the second move instruction (MOVFFL) comprises 12 bits of the destination address. a program memory having a 16-bit instruction word size and a data memory having an 8-bit data size wherein an instruction word has a payload size for an address of up to 12 bits; and a central processing unit, CPU, coupled with the program memory and the data memory; characterized by an indirect addressing register operable to address up to 16KB of data memory; and a bank select register configured to select one of up to 64 memory banks; wherein the CPU is configured to execute a first move instruction (MOVFF; MOVSF) comprising two instruction words and configured to only access the lower 4KB of the data memory and a second move instruction (MOVFFL; MOVSFL) comprising three instruction words and configured to access the entire data memory, wherein a first instruction word of the second move instruction (MOVFFL) comprises 4 bits of a source address and a second instruction word of the second move instruction (MOVFFL) comprises 10 bits of the source address and 2 bits of a destination address and a third instruction word of the second move instruction (MOVFFL) comprises 12 bits of the destination address.
A self-cleaning filter comprising: - a filtrating tubular element having an inner surface and a longitudinal direction of development; - a plurality of cleaning elements inserted inside said filtrating tubular element and configured for rotating about said longitudinal direction of development each one moving along a respective direction of forward motion, said cleaning elements being spaced away from each other along said longitudinal direction of development, each cleaning element having a front edge, a back edge and a pair of side edges, each cleaning element comprising at least a first suction inlet facing said inner surface and placed in proximity to said inner surface; wherein each cleaning element comprises a front profile connected to the front edge and a back profile connected to the back edge, said profiles (22a, 22b) being brought into contact with said inner surface of said filtrating tubular body and configured to keep in contact during the advancement along said inner surface to isolate a cleaning area between said suction inlet and said inner surface, a pair of side profiles each one connected to a respective side edge, said profiles (22a, 22b, 22c) being connected to each other so as to define a closed and flexible wall; characterized in that the self-cleaning filter comprises contact cleaning means configured for striking said inner surface to remove dirt from said inner surface, the contact cleaning means comprises a plurality of brushes, each secured to a respective cleaning element and configured for sliding in contact with the inner surface of the filtrating tubular element along the direction of forward motion. - a filtrating tubular element having an inner surface and a longitudinal direction of development; - a plurality of cleaning elements inserted inside said filtrating tubular element and configured for rotating about said longitudinal direction of development each one moving along a respective direction of forward motion, said cleaning elements being spaced away from each other along said longitudinal direction of development, each cleaning element having a front edge, a back edge and a pair of side edges, each cleaning element comprising at least a first suction inlet facing said inner surface and placed in proximity to said inner surface;
A process for the recovery of betaines from electrodialysis waste streams from betaine production processes, whereby said waste streams are treated with a pressure driven membrane process and the recovered betaine is returned into an ED unit, wherein the pressure driven membrane process is nanofiltration.
A method for opening a fiber bundle (Tm) by pulling out the fiber bundle (Tm) from a yarn feeding body and conveying the fiber bundle (Tm) in a fiber length direction and by moving a fiber in a width direction while bending the fiber by letting a fluid pass through the fiber bundle (Tm) to be conveyed, the method comprising the step of repeatedly performing a fluctuating operation of moving a contact member in a direction inclined at least with respect to a conveyance direction by rotating the contact member while bringing it into contact with the fiber bundle (Tm) to be conveyed so as to push a part of the fiber bundle (Tm) into a stress state, and then separating the contact member from the fiber bundle (Tm) in the stress state so as to temporarily bring the fiber bundle (Tm) into a relaxed state, wherein, when an arbitrary spot of the fiber bundle (Tm) is conveyed in a passage region of the fluid, at least one session of the fluctuating operation is performed.