mhurhangee/ep-ind-claims huggingface dataset:
A nucleic acid comprising: (a) a structural coding sequence encoding a rare-cutting endonuclease or a rare-cutting endonuclease subunit; and (b) a 5' untranslated region, a 3' UTR, or both a 5' UTR and a 3' UTR, wherein the 5' UTR, 3' UTR, or 5' UTR and 3' UTR are operably linked to the structural coding sequence, wherein the 5' UTR comprises the nucleic acid sequence set forth in SEQ ID NO:10, or a nucleic acid sequence having at least 95 percent identity to SEQ ID NO: 10 and the 3' UTR comprises the nucleic acid sequence set forth in SEQ ID NO: 11, or a nucleic acid sequence having at least 95 percent identity to SEQ ID NO: 11.
An apparatus, comprising: a positive terminal of a battery as a ground plane of an antenna, comprising a first electrically conductive external surface with a first surface area; a negative terminal of a battery, comprising a second electrically conductive external surface with a second surface area; and an antenna impedance matching circuit, electrically connected to a communication circuit, the antenna, and the first electrically conductive external surface of the battery; wherein the first surface area is greater than the second surface area. a positive terminal of a battery as a ground plane of an antenna, comprising a first electrically conductive external surface with a first surface area; a negative terminal of a battery, comprising a second electrically conductive external surface with a second surface area; and an antenna impedance matching circuit, electrically connected to a communication circuit, the antenna, and the first electrically conductive external surface of the battery; wherein the first surface area is greater than the second surface area.
A method for fitting a hearing device to the individual needs and preferences of a user of the hearing device by adjusting a first parameter p1 and a second parameter p2 of the hearing device, wherein the parameter p1 is functionally related to the parameter p2, comprising the steps of: i) determining based on a first audiological test performed with the user of the hearing device a first range [p1,min, p1,max] for a parameter setting of the first parameter p1, wherein the hearing device provides acceptable hearing performance for the user for any setting of the first parameter p1 within the range [p1,min, p1,max]; ii) adjusting a value of the second parameter p2 in a second audiological test performed with the user of the hearing device, wherein the adjustment of the value of the second parameter in the second audiological test is carried out such that the adjusted values of p2 correspond to values of parameter p1 that are within the first range [p1,min, p1,max], and wherein the first and the second audiological test are different audiological tests; and iii) determining an optimised value for p2 from the second audiological test. i) determining based on a first audiological test performed with the user of the hearing device a first range [p1,min, p1,max] for a parameter setting of the first parameter p1, wherein the hearing device provides acceptable hearing performance for the user for any setting of the first parameter p1 within the range [p1,min, p1,max]; ii) adjusting a value of the second parameter p2 in a second audiological test performed with the user of the hearing device, wherein the adjustment of the value of the second parameter in the second audiological test is carried out such that the adjusted values of p2 correspond to values of parameter p1 that are within the first range [p1,min, p1,max], and wherein the first and the second audiological test are different audiological tests; and iii) determining an optimised value for p2 from the second audiological test.
A cart, in particular a baby stroller, comprising a bottom frame, at least two back wheels and at least one front wheel mounted to the bottom frame, a carrier frame mounted to the bottom frame, the carrier frame being arranged for carrying a carrier element, in particular a child seat, a collapsing mechanism for bringing the carrier frame from a carrying position into a collapsed position and a folding mechanism for folding the at least two back wheels and the at least one front wheel from a drive position into a stow position, wherein the folding mechanism comprises an operating handle separate from the carrier frame such that the at least two back wheels and the at least one front wheel may be folded into the stow position independently of the collapsing mechanism for bringing the carrier frame into the collapsed position, wherein the at least two back wheels and the at least one front wheel are arranged essentially in parallel to a main plane of the bottom frame in the stow position, characterized in that the at least one front wheel and at least two back wheels in the stow position lie flat below the underside of the bottom frame.
An apparatus suitable for generating pressure pulses flowing with a drill string for the purpose of fracturing a formation, comprising: a pulsing/fracturing/drilling generating device longitudinally and axially existing within an annular drill collar flow channel (2, 120, 305) in a region above or below a drill bit, a positive displacement motor or a rotary steerable tool; wherein said PFD device is adapted to be situated near a formation of interest requiring injection for tertiary recovery or is situated adjacent to said formation that is being fractured such that a pulsing/fracturing/drilling medium (liquid or gas) flows through said annular drill collar flow channel (2, 120, 305) and said PFD medium is guided into two sets of selectively reversible flow channels (23, 230, 235), namely pilot and lower flow connecting channels, wherein said connecting channels (23, 230, 235) are connected to a guide pole channel (175, 26011) and said annular drill collar flow channel (2, 120, 305), and wherein said annular drill collar flow channel (2, 120, 305) utilizes one or more flow throttling devices (FTDs) allowing for transmitting signals, wherein said apparatus includes said flow throttling devices and a turbine with a flow diverter that diverts said PFD medium in said annular drill collar flow channel (2, 120, 305) into and away from turbine blades such that a force created by said PFD medium causes said turbine blades and said turbine to rotationally spin around a coil assembly and wherein said apparatus for generating pulses includes a pilot actuator assembly comprising a pilot, a pilot shaft (26230, 26240), double rolling bellows, at least one flow throttling device, a bellows chamber, and a pulser guide pole, wherein pilot and lower flow connecting channels (23, 230, 235) provide for reversal of flow and wherein said pilot seals a middle annular drill collar flow channel from said lower flow channel and such that said flow throttling device and said pilot are capable of bi-directional axial movement along or within said pulser guide pole and wherein said coil assembly generates electrical power for operating said motor and other operating equipment, said motor comprising a drive shaft centrally located between said motor and a magnetic pressure coupling wherein said motor and said coupling are mechanically coupled such that said motor rotates said magnetic pressure coupling outer magnets and moves said pilot actuator assembly.
A stabilizer for use with a trackable surgical instrument, comprising: a first member having a first annular body portion at a distal end and a first pair of legs extending therefrom and defining a proximal end of the first member, the first annular body portion including a plurality of locating slots adapted to engage a selectively positionable portion of the surgical instrument; a second member having a second annular body portion at a proximal end thereof and a second pair of legs extending therefrom and defining a distal end of the second member, the second annular body adapted to engage a drive device of the surgical instrument, the first pair of legs being telescopically coupled with and adjustable relative to the second pair of legs such that the first member is axially adjustable relative to the second member; and a retaining member configured to cooperate with at least one leg of the first and second pair of legs to retain the first member adjustably coupled to the second member. a first member having a first annular body portion at a distal end and a first pair of legs extending therefrom and defining a proximal end of the first member, the first annular body portion including a plurality of locating slots adapted to engage a selectively positionable portion of the surgical instrument; a second member having a second annular body portion at a proximal end thereof and a second pair of legs extending therefrom and defining a distal end of the second member, the second annular body adapted to engage a drive device of the surgical instrument, the first pair of legs being telescopically coupled with and adjustable relative to the second pair of legs such that the first member is axially adjustable relative to the second member; and a retaining member configured to cooperate with at least one leg of the first and second pair of legs to retain the first member adjustably coupled to the second member.
Multi piston machine with a rotor, which is located within a casing and which is rotatable about an axis of rotation, wherein the casing has a first and second working port (11; 12), wherein a first number of pistons (1.1 - 1.18) are received in the rotor in a linearly movable manner, wherein the pistons (1.1 - 1.18) are able to contact a cam surface of the casing, which has a second number of lobes, such that the number of strokes of a single piston (1.1 - 1.18) during one revolution of the rotor equals the second number, wherein each piston (1.1 - 1.18) has one associated first control opening (2.1 - 2.18) at a first control surface of the rotor, wherein the first control openings (2.1 - 2.18) are located along a first circle whose center is defined by the axis of rotation, wherein the casing has a second control surface which abuts against the first control surface, wherein the second control surface has a third number of second control openings (3.1 - 3.14), which are located along a second circle, whose center is defined by the axis of rotation, wherein each first control opening (2.1 - 2-18) is able to overlap each of the second openings (3.1 - 3.14) in at least one rotational position of the rotor respectively, wherein there is a first, a second, a third and fourth fluid chamber (31; 32; 33; 34), wherein each second control opening (3.1 - 3.14) is permanently connected to a single one of the first to fourth fluid chamber (31; 32; 33; 34), characterized in that, the multi piston machine is switchable between at least three non-zero displacement volumes by means of a first and a second control valve (41; 42), wherein the first control valve is connected to the first and the third fluid chamber (31; 33), wherein the second control valve is connected to the second and the fourth fluid chamber (32; 34), wherein the first and the second control valve (41; 42) are connected to the first and the second working (11; 12) port respectively, wherein the third number is twice the second number, wherein there is a first and a second group of second control openings (A; B), wherein adjacent second control openings (3.1 - 3.14) belong to a different first or second group (A; B), wherein the second control openings of the first group are either connected to the first or the second fluid chamber (31; 32), wherein the second control openings of the second group are either connected to the third or the fourth fluid chamber (33; 34).
A control system comprising: a heat load estimation unit, configured to refer to location information that indicates a location environment of a house and that includes information indicating a position (Pb) and a height (Hb) of a building that exists around the house, to weather information that indicates a weather forecast for a certain time slot, and to sun information that indicates a direction of the sun during the time slot, to check whether or not there is a building that blocks solar radiation to the house during the time slot based on the location information when the weather forecast indicated in the weather information is sunny, and to estimate a heat load which depends on solar radiation to the house during the time slot according to a result of the check; and an operation control unit configured to control ahead, operation of an air conditioner provided in the house before the time slot according to the heat load estimated by the heat load estimation unit. a heat load estimation unit, configured to refer to location information that indicates a location environment of a house and that includes information indicating a position (Pb) and a height (Hb) of a building that exists around the house, to weather information that indicates a weather forecast for a certain time slot, and to sun information that indicates a direction of the sun during the time slot, to check whether or not there is a building that blocks solar radiation to the house during the time slot based on the location information when the weather forecast indicated in the weather information is sunny, and to estimate a heat load which depends on solar radiation to the house during the time slot according to a result of the check; and an operation control unit configured to control ahead, operation of an air conditioner provided in the house before the time slot according to the heat load estimated by the heat load estimation unit.
A composition comprising a mixture of bacteria, which comprises or, alternatively, consists of: - at least a strain of bacterium selected from the group comprising the strain Lactobacillus plantarum LMG P-21021 and the strain Lactobacillus plantarum LMG P-21020, combined with: - at least a strain of bacterium selected from the group comprising the strain of bacteria Lactobacillus fermentum DSM 26955 and the strain of bacteria Lactobacillus fermentum DSM 26956, for use in the preventive and/or curative treatment of bacterial vaginosis, vaginitis and vaginal infections related with coliform pathogens and/or Gardnerella. - at least a strain of bacterium selected from the group comprising the strain Lactobacillus plantarum LMG P-21021 and the strain Lactobacillus plantarum LMG P-21020, combined with: - at least a strain of bacterium selected from the group comprising the strain of bacteria Lactobacillus fermentum DSM 26955 and the strain of bacteria Lactobacillus fermentum DSM 26956, - at least a strain of bacterium selected from the group comprising the strain of bacteria Lactobacillus fermentum DSM 26955 and the strain of bacteria Lactobacillus fermentum DSM 26956,
Method for determining the residual range of a motor vehicle which has an energy storage for a drive with an electric motor which acts on at least one wheel of the motor vehicle, as a function of a residual energy in the energy storage, characterised in that - the current consumption of the drive and of at least one secondary consumer describing consumption values (17, 18, 19) are determined using at least one sensor, - from the consumption values of the drive at least one drive prediction value (20a, 20b, 20c) associated with the drive and describing the consumption over a predetermined distance is determined and - from the consumption values (18, 19) of the secondary consumer, at least one secondary consumer prediction value (21, 22) associated with the secondary consumers and describing the consumption over a predetermined distance is determined, and - for at least one route to be travelled by the vehicle and described by the route data, the residual range is determined taking account of the drive prediction value (20a, 20b, 20c) and of the secondary consumer prediction value (21, 22), - wherein the drive prediction value (20a, 20b, 20c) and the secondary consumer prediction value (21, 22) are determined by a different calculation method and/or a differently parameterised calculation method, and - wherein the drive prediction value (20a, 20b, 20c) and the secondary consumer prediction value (21, 22) are determined by filtering of the profile of the consumption values (17, 18, 19) using at least one filter. - the current consumption of the drive and of at least one secondary consumer describing consumption values (17, 18, 19) are determined using at least one sensor, - from the consumption values of the drive at least one drive prediction value (20a, 20b, 20c) associated with the drive and describing the consumption over a predetermined distance is determined and - from the consumption values (18, 19) of the secondary consumer, at least one secondary consumer prediction value (21, 22) associated with the secondary consumers and describing the consumption over a predetermined distance is determined, and - for at least one route to be travelled by the vehicle and described by the route data, the residual range is determined taking account of the drive prediction value (20a, 20b, 20c) and of the secondary consumer prediction value (21, 22), - wherein the drive prediction value (20a, 20b, 20c) and the secondary consumer prediction value (21, 22) are determined by a different calculation method and/or a differently parameterised calculation method, and - wherein the drive prediction value (20a, 20b, 20c) and the secondary consumer prediction value (21, 22) are determined by filtering of the profile of the consumption values (17, 18, 19) using at least one filter.
A method for supplying a fuel into a combustion chamber, characterised by mixing the fuel with supercritical pressure CO 2 forming a mixture, injecting the mixture into a combustion chamber having a pressure lower than the CO 2 critical pressure, characterised by: heating the mixture in order to obtain a heated mixture; and discharging a flue gas from the combustion chamber; and using the flue gas to heat the mixture. mixing the fuel with supercritical pressure CO 2 forming a mixture, injecting the mixture into a combustion chamber having a pressure lower than the CO 2 critical pressure, characterised by: heating the mixture in order to obtain a heated mixture; and discharging a flue gas from the combustion chamber; and using the flue gas to heat the mixture. heating the mixture in order to obtain a heated mixture; and discharging a flue gas from the combustion chamber; and using the flue gas to heat the mixture.
A pen needle, comprising: a hub (511, 611, 711); a needle (513, 613, 713) fixedly connected to said hub (511, 611, 711); an outer cover (501, 601, 701); and a lubricant reservoir (503, 603, 703) disposed in said outer cover (501, 601, 701), wherein the outer cover (501, 601, 701) removably receiving said hub (511, 611, 711) and said needle (513, 613, 713), wherein at least a portion of said needle (513, 613, 713) is disposed in said lubricant reservoir (503, 603, 703) when said hub (511, 611, 711) and said needle (513, 613, 713) are received by said outer cover (501, 601, 701) characterized in that said lubricant reservoir (503, 603, 703) comprises a lubricant impregnated matrix. a hub (511, 611, 711); a needle (513, 613, 713) fixedly connected to said hub (511, 611, 711); an outer cover (501, 601, 701); and a lubricant reservoir (503, 603, 703) disposed in said outer cover (501, 601, 701), wherein the outer cover (501, 601, 701) removably receiving said hub (511, 611, 711) and said needle (513, 613, 713), wherein at least a portion of said needle (513, 613, 713) is disposed in said lubricant reservoir (503, 603, 703) when said hub (511, 611, 711) and said needle (513, 613, 713) are received by said outer cover (501, 601, 701) characterized in that said lubricant reservoir (503, 603, 703) comprises a lubricant impregnated matrix.
Waveguide coupling configuration for a fill level radar antenna, comprising: an assembly of a plurality of radiator elements along at least a first straight line and a second straight line for transmission and/or receipt of a respective radar signal; an arrangement of a plurality of waveguides, one of the waveguides being provided for each of the radiator elements, wherein each waveguide is configured for guiding the radar signals of the respective radiator elements to an antenna element of an antenna arrangement (109, 201) or inverted, which comprises a plurality of antenna elements for transmitting and/or receiving a respective one of the radar signals towards or from a filling material; wherein the waveguides comprises an respective waveguide opening on an antenna side, wherein the waveguide openings are arranged along a third line, and wherein the distance of at least two adjacent and along the third line arranged waveguide openings are less than or equal to one half of a wavelength of the respective radar signal with respect to each other; and the distance of at least two adjacent, along the frist line or second line, radiator elements is greater than one half of a wavelength of the transmit radar signal. an assembly of a plurality of radiator elements along at least a first straight line and a second straight line for transmission and/or receipt of a respective radar signal; an arrangement of a plurality of waveguides, one of the waveguides being provided for each of the radiator elements, wherein each waveguide is configured for guiding the radar signals of the respective radiator elements to an antenna element of an antenna arrangement (109, 201) or inverted, which comprises a plurality of antenna elements for transmitting and/or receiving a respective one of the radar signals towards or from a filling material; wherein the waveguides comprises an respective waveguide opening on an antenna side, wherein the waveguide openings are arranged along a third line, and wherein the distance of at least two adjacent and along the third line arranged waveguide openings are less than or equal to one half of a wavelength of the respective radar signal with respect to each other; and the distance of at least two adjacent, along the frist line or second line, radiator elements is greater than one half of a wavelength of the transmit radar signal.