mhurhangee/patent-ind-claim-en huggingface dataset:
A process for manufacture of health-promoting fruit energy drink, saturated with carbon dioxide, obtained from whole fruit or their edible parts, with an addition of caffeine comprising naturally cloudy fruit juice not from concentrate (NFC), preferably made from apples, characterised in that whole washed fruit or any edible parts thereof are pressed into the form of naturally cloudy juice, mixed with addition of caffeine amounting to 100-800 mg per liter of the drink, for 25-35 seconds pasteurised in the range of pasteurisation temperatures of the given juice or mixture of juices (72-89°C), subsequently cooled down to a temperature within a range of 4-10°C, saturated with carbon dioxide amounting to 1-8 grams per liter of the drink and contained in cans intended for carbonated drinks.
A flexible annular double lumen tube with a tube coupling system, said flexible annular double lumen tube having an interior flexible tube extending inside an exterior flexible tube , wherein the interior flexible tube delimits a first flow channel , and the annular tube gap between said interior flexible tube and said exterior flexible tube delimits a second flow channel , which flexible annular double lumen tube has a proximal end and a distal end , and wherein the interior flexible tube has an exterior diameter (D) that is smaller than an interior diameter (d) of the exterior flexible tube , and the interior flexible tube and the exterior flexible tube have no radial connection, characterized in that the tube coupling system has - a first coupling component that is secured to the proximal end of said flexible annular double lumen tube , and a first second coupling component that has opposite end fittings that are secured to a cuffed irrigation catheter of the tube coupling system and to the first coupling component , respectively, and - a second second coupling component that has opposite end fittings that are secured to the distal end of the flexible annular double lumen tube and to a flow converter component of the tube coupling system, respectively. - a first coupling component that is secured to the proximal end of said flexible annular double lumen tube , and a first second coupling component that has opposite end fittings that are secured to a cuffed irrigation catheter of the tube coupling system and to the first coupling component , respectively, and - a second second coupling component that has opposite end fittings that are secured to the distal end of the flexible annular double lumen tube and to a flow converter component of the tube coupling system, respectively.
A process for producing an organic device having a hole current-electron current conversion layer which comprises a laminate of an electron transportation section and a hole transportation section, said process comprising forming said electron transportation section by codepositing a mixed layer of an organic metal complex compound, namely Liq, containing an alkaline metal ion, namely Li + , and an electron-accepting organic compound, namely Alq or BCP, and contacting a thermally reducible metal, namely Al, capable of reducing said alkaline metal ion contained in the organic metal complex compound in vacuum to the corresponding metal state, upon contact, with said mixed layer by lamination, wherein a charge transfer complex is formed upon an oxidation-reduction reaction between said Li + and said electron-accepting organic compound, said Li + being produced upon an in-situ thermal reduction reaction caused upon said contact, and forming said hole transportation section by contacting, through lamination or mixing by codeposition an organic compound having an ionization potential of less than 5.7 eV and an electron-donating property, and an inorganic substance capable of forming a charge transfer complex through its oxidation-reduction reaction with the organic compound upon contact in which the electron-donating organic compound is in the state of radical cations.
A travel lane detection method using a travel lane detection circuit for accumulating, according to an amount of movement of a vehicle , a plurality of travel lane characteristic points (FP') detected by a target detection sensor installed in the vehicle so as to detect travel lane boundaries (SKa, SKb, SKc) according to the accumulated travel lane characteristic points (FP, FP'), characterized by the travel lane detection circuit being configured to, when a lane change of the vehicle is detected, correct the travel lane characteristic points (FP') detected and accumulated before the lane change starts according to an amount (OF) of movement of the vehicle in a vehicle width direction derived from the lane change, and detect the travel lane boundaries (SKa, SKb, SKc) after the lane change of the vehicle is completed by use of the corrected travel lane characteristic points (FP') detected and accumulated before the lane change starts and the travel lane characteristic points (FP) detected and accumulated after the lane change is completed, and the travel lane detection circuit being configured not to use the travel lane characteristic points (FP) detected during a period from when the lane change starts to when the lane change is completed. characterized by the travel lane detection circuit being configured to, when a lane change of the vehicle is detected, correct the travel lane characteristic points (FP') detected and accumulated before the lane change starts according to an amount (OF) of movement of the vehicle in a vehicle width direction derived from the lane change, and detect the travel lane boundaries (SKa, SKb, SKc) after the lane change of the vehicle is completed by use of the corrected travel lane characteristic points (FP') detected and accumulated before the lane change starts and the travel lane characteristic points (FP) detected and accumulated after the lane change is completed, and when a lane change of the vehicle is detected, correct the travel lane characteristic points (FP') detected and accumulated before the lane change starts according to an amount (OF) of movement of the vehicle in a vehicle width direction derived from the lane change, and detect the travel lane boundaries (SKa, SKb, SKc) after the lane change of the vehicle is completed by use of the corrected travel lane characteristic points (FP') detected and accumulated before the lane change starts and the travel lane characteristic points (FP) detected and accumulated after the lane change is completed, and the travel lane detection circuit being configured not to use the travel lane characteristic points (FP) detected during a period from when the lane change starts to when the lane change is completed.
An assembly of a planetary gear arrangement and an auxiliary oil supply apparatus for supplying oil to components of the planetary gear arrangement, the assembly comprising a central sun gear (1;31), an outer ring gear (2;32) and a plurality of planet gears (3;33) between and in meshed engagement with both the sun gear (1;31) and the ring gear (3;33), the plurality of planet gears (3;33) arranged to precess around the sun gear (1;31), a plate (5;35;50) arranged with respect to the plurality of planet gears (3;33) to rotate as the plurality of planet gears precesses around the sun gear (1;31); each planet gear (3;33) mounted for rotation about its own centre by means of a bearing (4;34); a primary oil supply supplying oil to the planetary gear arrangement and an annular gutter (6;36;51) situated radially outwardly of an axis about which the plurality of planet gears (3;33) are arranged to precess, the annular gutter (36;51) arranged to collect oil driven radially outwardly as the plurality of planet gears (3;33) precesses, the auxiliary oil supply apparatus comprising a scoop (38;56) mounted to the plate (5;35;50) and responsive to a change in a known operating parameter associated with the gear arrangement to move between a first position radially between the annular gutter (51;36) and the axis to a second position in the annular gutter (51; 36) whereby to recycle and redistribute oil delivered by the primary oil supply to components of the planetary gear arrangement.
A method of rendering graphics with a processing unit, the method comprising: determining, for a first pixel including a plurality of samples, that the plurality of the samples include one or more covered samples that are covered by a first primitive, wherein the plurality of samples include one or more color samples and a plurality of depth samples; determining, for the one or more covered samples, whether the one or more covered samples include at least a respective one of the one or more color samples; invoking a pixel shader for the first pixel for the first primitive if the determining determines that the one or more covered samples include at least a respective one of the one or more color samples so that determining of only color sample coverage for the one or more covered samples dictates invoking of the pixel shader for the first pixel; and deriving a color value, for the first primitive, for a display pixel not associated with a color sample but associated with a depth sample by assigning a color value of a color sample at a same depth value as the depth sample. determining, for a first pixel including a plurality of samples, that the plurality of the samples include one or more covered samples that are covered by a first primitive, wherein the plurality of samples include one or more color samples and a plurality of depth samples; determining, for the one or more covered samples, whether the one or more covered samples include at least a respective one of the one or more color samples; invoking a pixel shader for the first pixel for the first primitive if the determining determines that the one or more covered samples include at least a respective one of the one or more color samples so that determining of only color sample coverage for the one or more covered samples dictates invoking of the pixel shader for the first pixel; and deriving a color value, for the first primitive, for a display pixel not associated with a color sample but associated with a depth sample by assigning a color value of a color sample at a same depth value as the depth sample.
A system, comprising: a crankcase encasing cylinders of an engine, the crankcase including an integrated front end housing ; a crankcase overpressure (COP) sensor coupled to the crankcase ; a sensor port positioned in an internal wall of the integrated front end housing , the sensor port fluidically coupled to the COP sensor via an internal passage ; a cast wall integrally formed with the internal wall, the cast wall at least partially surrounding the sensor port ; and a cover plate fixedly coupled to the cast wall , at least a portion of the cover plate parallel to the internal wall. a crankcase encasing cylinders of an engine, the crankcase including an integrated front end housing ; a crankcase overpressure (COP) sensor coupled to the crankcase ; a sensor port positioned in an internal wall of the integrated front end housing , the sensor port fluidically coupled to the COP sensor via an internal passage ; a cast wall integrally formed with the internal wall, the cast wall at least partially surrounding the sensor port ; and a cover plate fixedly coupled to the cast wall , at least a portion of the cover plate parallel to the internal wall.
Laser pulse generator having a. a pulse shape generation device , having i. a pulse shape store for storing data and a digital/analogue converter (DAC) which is connected thereto, ii. a first connection for connecting a start signal line of a start signal path , iii. a second connection for connecting a clock signal line , iv. a third connection for connecting a pulse line , wherein the first and second connections are connected to the pulse shape store and the DAC in such a manner that, with a predetermined start signal, data are directed from the pulse shape store to the DAC and are converted by the DAC , in particular at the rate of a clock signal, into an output pulse which is provided at the third connection for controlling a driver for a laser diode , b. a clock unit which is connected to the second connection via the clock signal line , characterised in that c. the clock unit has a reset connection which is connected to the start signal path . a. a pulse shape generation device , having i. a pulse shape store for storing data and a digital/analogue converter (DAC) which is connected thereto, ii. a first connection for connecting a start signal line of a start signal path , iii. a second connection for connecting a clock signal line , iv. a third connection for connecting a pulse line , wherein the first and second connections are connected to the pulse shape store and the DAC in such a manner that, with a predetermined start signal, data are directed from the pulse shape store to the DAC and are converted by the DAC , in particular at the rate of a clock signal, into an output pulse which is provided at the third connection for controlling a driver for a laser diode , i. a pulse shape store for storing data and a digital/analogue converter (DAC) which is connected thereto, ii. a first connection for connecting a start signal line of a start signal path , iii. a second connection for connecting a clock signal line , iv. a third connection for connecting a pulse line , wherein the first and second connections are connected to the pulse shape store and the DAC in such a manner that, with a predetermined start signal, data are directed from the pulse shape store to the DAC and are converted by the DAC , in particular at the rate of a clock signal, into an output pulse which is provided at the third connection for controlling a driver for a laser diode , b. a clock unit which is connected to the second connection via the clock signal line , characterised in that c. the clock unit has a reset connection which is connected to the start signal path .
A jack kit (A) comprising - a jack having rivets , - a lug wrench , - a mounting hole which is used in fixing said lug wrench to the vehicle and is formed on the lug wrench , wherein said jack kit (A) comprises - a fixing groove which is formed on said jack , and in which the end part of the lug wrench is attached, - at least one fixing member which is formed on the said lug wrench ; wherein both said fixing groove and said at least one fixing member together fix the lug wrench to the jack , characterized in that said fixing member is in form of a hook arranged to be positioned on one of the rivets inside the jack base of the jack . - a jack having rivets , - a lug wrench , - a mounting hole which is used in fixing said lug wrench to the vehicle and is formed on the lug wrench , wherein said jack kit (A) comprises - a fixing groove which is formed on said jack , and in which the end part of the lug wrench is attached, - at least one fixing member which is formed on the said lug wrench ; wherein both said fixing groove and said at least one fixing member together fix the lug wrench to the jack , characterized in that said fixing member is in form of a hook arranged to be positioned on one of the rivets inside the jack base of the jack .
An observation device capturing an image of an image capturing site for observation, the observation device comprising: an image capturing portion capturing the image of the image capturing site, the image capturing portion including a narrow range image capturing portion capturing an image of the observation site (T) in a narrow range (An) and a wide range image capturing portion capturing an image of the observation site in a wide range (Aw); a three-dimensional position detector detecting a three-dimensional position of at least the observation site (T) based on a wide range image (Pw) captured by the wide range image capturing portion ; a blur corrector correcting a blur of a narrow range image (Pn) captured by the narrow range image capturing portion , based on a change in a three-dimensional positional relationship between the observation site (T), the three-dimensional position of which has been detected by the three-dimensional position detector , and the narrow range image capturing portion ; and an image display portion displaying at least the narrow range image (Pe) having the blur corrected, among the narrow range image (Pe) having the blur corrected and the wide range image (Pw) . an image capturing portion capturing the image of the image capturing site, the image capturing portion including a narrow range image capturing portion capturing an image of the observation site (T) in a narrow range (An) and a wide range image capturing portion capturing an image of the observation site in a wide range (Aw); a three-dimensional position detector detecting a three-dimensional position of at least the observation site (T) based on a wide range image (Pw) captured by the wide range image capturing portion ; a blur corrector correcting a blur of a narrow range image (Pn) captured by the narrow range image capturing portion , based on a change in a three-dimensional positional relationship between the observation site (T), the three-dimensional position of which has been detected by the three-dimensional position detector , and the narrow range image capturing portion ; and an image display portion displaying at least the narrow range image (Pe) having the blur corrected, among the narrow range image (Pe) having the blur corrected and the wide range image (Pw) .
A method of producing oil and gas from a well, the method comprising the steps of: a) channeling field production into a sealed vessel through an inlet pipe attached to the bottom of the vessel and connected to a subsea production manifold or flowline, the sealed vessel being conical and having a larger cross section at a lower end supported at a sea floor and a smaller cross section at an upper end that extends to a sea surface; b) permitting oil and gas components of the field production to separate from water and other fluids within the vessel ; c) lowering the pressure in the vessel to allow for gas to gather to the top of the vessel ; d) pumping seawater into the vessel to increase pressure at the vessel and thereby aid in the production of oil and gas from the vessel ; and e) evacuating the separated pressurized oil and gas from the vessel via pipelines attached to the vessel at locations corresponding to the separated pressurized oil and gas. a) channeling field production into a sealed vessel through an inlet pipe attached to the bottom of the vessel and connected to a subsea production manifold or flowline, the sealed vessel being conical and having a larger cross section at a lower end supported at a sea floor and a smaller cross section at an upper end that extends to a sea surface; b) permitting oil and gas components of the field production to separate from water and other fluids within the vessel ; c) lowering the pressure in the vessel to allow for gas to gather to the top of the vessel ; d) pumping seawater into the vessel to increase pressure at the vessel and thereby aid in the production of oil and gas from the vessel ; and e) evacuating the separated pressurized oil and gas from the vessel via pipelines attached to the vessel at locations corresponding to the separated pressurized oil and gas.
An F-18 labeled molecule comprising an F-18 metal complex attached to the molecule for use in a method of F-18 imaging by positron emission tomography (PET), wherein the metal is selected from the group consisting of aluminum, gallium, indium, lutetium and thallium.
Sensor assembly for the determination of a spatial position of a first part (76; 114) relative to a second part (78; 112), having at least one magnet that is disposed on the first part (76; 114) and that generates a magnetic field (75; 124; 126) that extends to the second part (78; 112), and having at least four magnetic field sensors which form a first pair and a second pair each with a first magnetic field sensor and a second magnetic field sensor , wherein the first magnetic field sensor and the second magnetic field sensor are each disposed at a spatial distance from each other on the second part (76; 114) and each generate an output signal depending on the magnetic field (75; 124; 126), wherein the at least one magnet is positioned in the respective spatial distance , and wherein the output signals of the respective first magnetic field sensor and of the respective second magnetic field sensor are each combined to form a common sensor signal which depends on the spatial position of the first part (76; 114) relative to the second part (78; 112) along a defined measurement axis , wherein the defined measurement axis lies transversely to the respective spatial distance , wherein the output signals of the first and second magnetic field sensors essentially represent a magnetic field direction at the location of the respective magnetic field sensor , and wherein each pair generates the respective common sensor signal with respect to one of at least two measurement axes which are orthogonal to one another.
A system comprising: a heat exchange system comprising: a first heat exchanger operable as a continuous source of heat from a delayed coking plant, the first heat exchanger configured to heat a first fluid stream to produce a heated first fluid stream; a second heat exchanger operable as a continuous source of heat from the delayed coking plant, the second heat exchanger configured to heat a second fluid stream to produce a heated second fluid stream, wherein the heated second fluid stream has a lower temperature and a greater quantity of heat than the heated first fluid stream; a heat exchanger operable as a continuous source of heat to the delayed coking plant, the heat exchanger configured to heat a third fluid stream to produce a heated third fluid stream, wherein the third fluid stream includes the heated first fluid stream and a hot fluid stream, wherein the heated third fluid stream has a lower temperature than the heated first fluid stream; and a power generation system configured to generate power using heat from the heated second fluid stream and the heated third fluid stream. a heat exchange system comprising: a first heat exchanger operable as a continuous source of heat from a delayed coking plant, the first heat exchanger configured to heat a first fluid stream to produce a heated first fluid stream; a second heat exchanger operable as a continuous source of heat from the delayed coking plant, the second heat exchanger configured to heat a second fluid stream to produce a heated second fluid stream, wherein the heated second fluid stream has a lower temperature and a greater quantity of heat than the heated first fluid stream; a heat exchanger operable as a continuous source of heat to the delayed coking plant, the heat exchanger configured to heat a third fluid stream to produce a heated third fluid stream, wherein the third fluid stream includes the heated first fluid stream and a hot fluid stream, wherein the heated third fluid stream has a lower temperature than the heated first fluid stream; and a first heat exchanger operable as a continuous source of heat from a delayed coking plant, the first heat exchanger configured to heat a first fluid stream to produce a heated first fluid stream; a second heat exchanger operable as a continuous source of heat from the delayed coking plant, the second heat exchanger configured to heat a second fluid stream to produce a heated second fluid stream, wherein the heated second fluid stream has a lower temperature and a greater quantity of heat than the heated first fluid stream; a heat exchanger operable as a continuous source of heat to the delayed coking plant, the heat exchanger configured to heat a third fluid stream to produce a heated third fluid stream, wherein the third fluid stream includes the heated first fluid stream and a hot fluid stream, wherein the heated third fluid stream has a lower temperature than the heated first fluid stream; and a power generation system configured to generate power using heat from the heated second fluid stream and the heated third fluid stream.