mhurhangee/patent-ind-claim-en huggingface dataset:
An olefin oligomerization process comprising: a) contacting an olefin and a catalyst system comprising i) a transition metal complex comprising a transition metal compound complexed to a ligand comprising a pyridine bisimine group, and ii) a metal alkyl compound to form an olefin oligomer product in a continuous reactor; and b) controlling an olefin oligomer product distribution K value in a range from 0.5 to 0.8 for the transition metal complex by adjusting an olefin oligomerization parameter selected from i) a transition metal of the transition metal complex concentration in the continuous reactor, ii) a metal of the metal alkyl compound concentration in the continuous reactor, iii) a metal of the metal alkyl to transition metal of the transition metal complex molar ratio in the continuous reactor, or iv) any combination thereof; wherein the olefin oligomer product is produced at a temperature ranging from 95 °C to 150 °C. a) contacting an olefin and a catalyst system comprising i) a transition metal complex comprising a transition metal compound complexed to a ligand comprising a pyridine bisimine group, and ii) a metal alkyl compound to form an olefin oligomer product in a continuous reactor; and i) a transition metal complex comprising a transition metal compound complexed to a ligand comprising a pyridine bisimine group, and ii) a metal alkyl compound b) controlling an olefin oligomer product distribution K value in a range from 0.5 to 0.8 for the transition metal complex by adjusting an olefin oligomerization parameter selected from i) a transition metal of the transition metal complex concentration in the continuous reactor, ii) a metal of the metal alkyl compound concentration in the continuous reactor, iii) a metal of the metal alkyl to transition metal of the transition metal complex molar ratio in the continuous reactor, or iv) any combination thereof; wherein the olefin oligomer product is produced at a temperature ranging from 95 °C to 150 °C. i) a transition metal of the transition metal complex concentration in the continuous reactor, ii) a metal of the metal alkyl compound concentration in the continuous reactor, iii) a metal of the metal alkyl to transition metal of the transition metal complex molar ratio in the continuous reactor, or iv) any combination thereof;
A housing structure, comprising: a housing and a rotating mechanism connected to the housing , wherein an axis of a rotating shaft of the rotating mechanism is parallel to a plane where a bottom surface of the housing is located, a supporting foot connected to the housing by the rotating shaft , the supporting foot having a working position for rotating relative to the housing , and the supporting foot having a storage position to which the supporting foot gradually rotates from the working position toward the housing , wherein when the supporting foot is located in the working position or the storage position, an included angle between a geometric central line in a length direction of the supporting foot and the axis of the rotating shaft is β, and 0 < β < 90°, characterized in that when the supporting foot is located in the working position, the geometric central line in the length direction of the supporting foot is perpendicular to a geometric central line in a longitudinal direction of a bottom of the housing . a supporting foot connected to the housing by the rotating shaft , the supporting foot having a working position for rotating relative to the housing , and the supporting foot having a storage position to which the supporting foot gradually rotates from the working position toward the housing , wherein when the supporting foot is located in the working position or the storage position, an included angle between a geometric central line in a length direction of the supporting foot and the axis of the rotating shaft is β, and 0 < β < 90°, characterized in that when the supporting foot is located in the working position, the geometric central line in the length direction of the supporting foot is perpendicular to a geometric central line in a longitudinal direction of a bottom of the housing .
An electronic device comprising: a display for displaying a graphical user interface ; a window configured to selectively become transparent or opaque; a component disposed behind the window , wherein the component comprises an image capture device , a strobe flash , a biometric sensor , a light sensor, a proximity sensor, or a solar panel, or a combination thereof; data processing circuitry configured to determine when an event requesting that the component be exposed for use occurs based on an input at the display using the graphical user interface ; and a window controller configured to cause the window to become transparent to expose the component upon the occurrence of the event requesting that the component be exposed. a display for displaying a graphical user interface ; a window configured to selectively become transparent or opaque; a component disposed behind the window , wherein the component comprises an image capture device , a strobe flash , a biometric sensor , a light sensor, a proximity sensor, or a solar panel, or a combination thereof; data processing circuitry configured to determine when an event requesting that the component be exposed for use occurs based on an input at the display using the graphical user interface ; and a window controller configured to cause the window to become transparent to expose the component upon the occurrence of the event requesting that the component be exposed.
A tip cooling apparatus for a turbine airfoil , comprising: a tip cap ; a pair of spaced-apart tip walls connected to, extending around, and projecting outwardly from the tip cap so as to surround a central portion of the tip cap ; a pocket defined by the tip walls ; at least one feed hole passing through the tip cap or tip walls , communicating with the pocket ; and a cooling matrix disposed in the pocket , the cooling matrix being an organized structure including an inlet surface having a plurality of inlets communicating with the pocket , and an outlet surface having a plurality of outlets , and further comprising a plurality of interior passages interconnecting the inlets to the outlets , with no line-of-sight therebetween; characterized in that the interior passages define cubic repeating modules ; wherein a plenum is defined 854, 154) between the inlet surface of the cooling matrix and the pocket . a tip cap ; a pair of spaced-apart tip walls connected to, extending around, and projecting outwardly from the tip cap so as to surround a central portion of the tip cap ; a pocket defined by the tip walls ; at least one feed hole passing through the tip cap or tip walls , communicating with the pocket ; and a cooling matrix disposed in the pocket , the cooling matrix being an organized structure including an inlet surface having a plurality of inlets communicating with the pocket , and an outlet surface having a plurality of outlets , and further comprising a plurality of interior passages interconnecting the inlets to the outlets , with no line-of-sight therebetween; characterized in that the interior passages define cubic repeating modules ; wherein a plenum is defined 854, 154) between the inlet surface of the cooling matrix and the pocket .
A liquid-gas separator, comprising a composite membrane , said membrane characterized by including: a first, ink-philic part ; and a second, ink-phobic part in contact with and downstream from the first part in a direction air is to pass through the membrane, wherein the first part has a bubble pressure, when wetted in the range of 4970 to 14930 Pa (20 to 60inH 2 O), which is smaller than a first pressure difference, to pass air but not ink at the first pressure difference across the membrane; and wherein the bubble pressure is greater than a second pressure difference, to block the air passing back through the membrane at a second pressure difference smaller than the first pressure difference. a first, ink-philic part ; and a second, ink-phobic part in contact with and downstream from the first part in a direction air is to pass through the membrane,
Dough-sheet-forming apparatus for forming an endless dough sheet , - having a dough-supply container , - having a dough-portion former for forming dough portions from supplied dough, - having a dough conveyor for conveying the dough portions downstream of the dough-portion former , - having a dough-rolling device in the conveying path downstream of the dough conveyor , for the purpose of rolling the conveyed dough portions into the dough sheet , - characterized in that the dough-portion former is designed such that it forms at least two dough portions parallel to one another, - wherein the dough conveyor is designed such that it feeds the at least two dough portions to the dough-rolling device at a predetermined time interval. - having a dough-supply container , - having a dough-portion former for forming dough portions from supplied dough, - having a dough conveyor for conveying the dough portions downstream of the dough-portion former , - having a dough-rolling device in the conveying path downstream of the dough conveyor , for the purpose of rolling the conveyed dough portions into the dough sheet , - characterized in that - wherein the dough conveyor is designed such that it feeds the at least two dough portions to the dough-rolling device at a predetermined time interval.
A bicycle transport container, in particular a bicycle cardboard box, comprising an outer container, in particular of cuboid shape, a fork receiving element arranged inside the outer container, the fork receiving element having a receiving element adapted to be arranged between the dropouts of the bicycle fork in order to receive a bicycle fork , characterized in that the receiving element is substantially arranged transversely to the longitudinal direction of the outer container so that a bicycle fork mounted to the receiving element can also be arranged transversely to the longitudinal direction of the outer container in a packaged state. an outer container, in particular of cuboid shape, a fork receiving element arranged inside the outer container, the fork receiving element having a receiving element adapted to be arranged between the dropouts of the bicycle fork in order to receive a bicycle fork , characterized in that the receiving element is substantially arranged transversely to the longitudinal direction of the outer container so that a bicycle fork mounted to the receiving element can also be arranged transversely to the longitudinal direction of the outer container in a packaged state.
An apparatus comprising means for: pre-distorting an input signal, that is to be amplified by a power amplifier , by: processing (S8.2), by a first neural network block comprising multiple convolutional neural network layers, input data representing in-phase, I, and quadrature, Q, signals of the input signal to generate a first neural network block output; processing (S8.3), by a second neural network block comprising at least one dilated convolutional neural network layer, the input data to generate a second neural network block output; and combining (S8.4), using a linear transformation block having plural linear transformation coefficients, the first neural network block output and the second neural network block output to generate a pre-distorted signal for amplification by the power amplifier, wherein amplification of the pre-distorted signal by the power amplifier produces an amplified signal, wherein the means are further configured to: receive (S8.6) data representing the amplified signal; and based on the data representing the amplified signal, adapt (S8.7) the linear transformation coefficients of the linear transformation block. processing (S8.2), by a first neural network block comprising multiple convolutional neural network layers, input data representing in-phase, I, and quadrature, Q, signals of the input signal to generate a first neural network block output; processing (S8.3), by a second neural network block comprising at least one dilated convolutional neural network layer, the input data to generate a second neural network block output; and combining (S8.4), using a linear transformation block having plural linear transformation coefficients, the first neural network block output and the second neural network block output to generate a pre-distorted signal for amplification by the power amplifier, wherein amplification of the pre-distorted signal by the power amplifier produces an amplified signal, receive (S8.6) data representing the amplified signal; and based on the data representing the amplified signal, adapt (S8.7) the linear transformation coefficients of the linear transformation block.
A biological fluid collection device , comprising: an inlet portion ; an outlet portion ; an outer wall spanning the inlet portion and the outlet portion ; an inner wall disposed within the outer wall and spaced from the outer wall , the inner wall defining a chamber therein and including a first end and a second end , the first end in fluid communication with the inlet portion and the second end defines an exit aperture ; a flow channel disposed between the outer wall and the inner wall , the flow channel in fluid communication with the inlet portion ; a mixing portion disposed between the second end of the inner wall and the outlet portion ; and a sample stabilizer disposed within an interior portion of the outer wall . an inlet portion ; an outlet portion ; an outer wall spanning the inlet portion and the outlet portion ; an inner wall disposed within the outer wall and spaced from the outer wall , the inner wall defining a chamber therein and including a first end and a second end , the first end in fluid communication with the inlet portion and the second end defines an exit aperture ; a flow channel disposed between the outer wall and the inner wall , the flow channel in fluid communication with the inlet portion ; a mixing portion disposed between the second end of the inner wall and the outlet portion ; and a sample stabilizer disposed within an interior portion of the outer wall .
Method for producing a molded part having a multilayered structure, wherein the multilayered structure includes at least one vermiculite layer and at least one microfiber layer , wherein the microfibers have a fiber diameter between 0.5 μm and 3 μm, wherein the method comprises the following steps: - the microfiber layer is placed into a press mold as a finished microfiber layer in the form of a finished mat, - a mixture composed of vermiculite and binder is added in one layer onto the finished microfiber layer in the form of the finished mat in the press mold , - the layered structure is subject to pressing in the press mold . - the microfiber layer is placed into a press mold as a finished microfiber layer in the form of a finished mat, - a mixture composed of vermiculite and binder is added in one layer onto the finished microfiber layer in the form of the finished mat in the press mold , - the layered structure is subject to pressing in the press mold .
A tube (34; 44) comprising a plurality of left-handed and right-handed fibers (36a; 36b) braided to form a channel inside the tube (34; 44) and adapted to longitudinally extend from a compressed length to an extended length in response to a longitudinal extension force, wherein: a) the tube (34; 44) is adapted to, when contracting from its extended length to its compressed length, compress into a plurality of annular pleats, each annular pleat comprising an annular ridge and an annular valley and having an inner diameter which is greater at the annular ridge than at the annular valley ; and b) for each annular pleat, the annular ridge from that annular pleat and the annular valley from that annular pleat are both centered around a longitudinal axis of the channel inside the tube (34; 44); wherein the tube (34; 44) is adapted to compress into the plurality of annular pleats based on the plurality of left-handed and right-handed fibers (36a; 36b) being heat set into a configuration comprising the plurality of annular pleats; characterized in that each annular ridge from the plurality of annular pleats comprises a plurality of areas melted in the pleated configuration. a) the tube (34; 44) is adapted to, when contracting from its extended length to its compressed length, compress into a plurality of annular pleats, each annular pleat comprising an annular ridge and an annular valley and having an inner diameter which is greater at the annular ridge than at the annular valley ; and b) for each annular pleat, the annular ridge from that annular pleat and the annular valley from that annular pleat are both centered around a longitudinal axis of the channel inside the tube (34; 44);
A bolometer including a. a radiation absorbing element for absorbing electromagnetic THz radiation, b. a membrane layer on a silicon substrate , c. a superconducting inductive element in thermal contact with the radiation absorbing element , wherein the superconducting inductive element is thermally isolated from the substrate , and d. a read-out circuit for indicating the absorbed electromagnetic THz radiation, wherein e. the superconducting inductive element is thermally isolated from the substrate by micro-suspension legs by perforations in the membrane layer , f. the superconducting inductive element is electrically connected to a capacitor (Csh) in order to form a resonator circuit (Csh, 2), and g. the read-out circuit is implemented by sensing the change in amplitude or phase or both changes in amplitude and in phase of the resonator circuit (Csh, 2). a. a radiation absorbing element for absorbing electromagnetic THz radiation, b. a membrane layer on a silicon substrate , c. a superconducting inductive element in thermal contact with the radiation absorbing element , wherein the superconducting inductive element is thermally isolated from the substrate , and d. a read-out circuit for indicating the absorbed electromagnetic THz radiation, wherein e. the superconducting inductive element is thermally isolated from the substrate by micro-suspension legs by perforations in the membrane layer , f. the superconducting inductive element is electrically connected to a capacitor (Csh) in order to form a resonator circuit (Csh, 2), and g. the read-out circuit is implemented by sensing the change in amplitude or phase or both changes in amplitude and in phase of the resonator circuit (Csh, 2).
A combine harvester with a front attachment having a working width (VB) and a spreader device for spreading non-grain constituents on a field, which comprises at least two rotatably drivable spreader units which are disposed at a distance with respect to each other at the rear of the combine harvester , wherein the spreader units are disposed essentially symmetrically with respect to the longitudinal axis (ML) of the combine harvester and each comprises a housing which partially surrounds the respective spreader unit in the circumferential direction and which comprises an inlet opening and a discharge opening, as well as respectively at least one deflector which is pivotable about a vertical axis in the circumferential direction of the spreader unit , which varies the opening width and the position of the discharge opening, wherein the spreader units are separated from each other by at least the width of the combine harvester , wherein the at least one deflector of the respective spreader unit can be controlled by means of a control device on the basis of a spreading performance characteristic which can be generated by the control device as a function of the working width (VB) of a front attachment coupled to the combine harvester and at least one further parameter, characterized in that an offset of the spread width with respect to the longitudinal axis (ML) of the combine harvester can be set which, per spreader unit corresponds to approximately half the width of the combine harvester , wherein a presettable area ratio, namely a ratio of mass of non-grain constituents to be spread per unit area, which cannot be maintained from one spreader unit because a lower mass flow is being supplied, can be compensated for by the spreader unit to which a higher mass flow is being supplied, by extending the spread width by up to approximately half the width of the combine harvester onto the spread zone for the other spreader unit by corresponding control, while the spread width of the spreader unit to which a lower mass flow is supplied can be correspondingly reduced.
Cold-rolled and heat-treated steel sheet, made of a steel having a composition comprising, by weight percent: C : 0.3 - 0.4 % Mn : 2.0 - 2.6 % 0.8% ≤ Si <1.5% Al : 0.01 - 0.6 % Mo : 0.15 - 0.5 % Cr : 0.3 - 1.0 % Nb : 0.0010% - 0.06 % Ti: 0.0010% - 0.06% B: 0.0003 - 0.005 % Ni ≤ 0.8 % S ≤ 0.010 % P ≤ 0.020 % N ≤ 0.008 %Cu ≤ 0.03% and comprising optionally one or more of the following elements, in weight percentage: V ≤ 0.2 % the remainder of the composition being iron and unavoidable impurities resulting from the smelting, said steel sheet having a microstructure consisting of, in surface fraction: - between 15% and 30% of retained austenite, said retained austenite having a carbon content of at least 0.7% - between 70% and 85% of tempered martensite and - at most 5% of fresh martensite and - at most 5% of bainite. C : 0.3 - 0.4 % Mn : 2.0 - 2.6 % 0.8% ≤ Si <1.5% Al : 0.01 - 0.6 % Mo : 0.15 - 0.5 % Cr : 0.3 - 1.0 % Nb : 0.0010% - 0.06 % Ti: 0.0010% - 0.06% B: 0.0003 - 0.005 % Ni ≤ 0.8 % S ≤ 0.010 % P ≤ 0.020 % N ≤ 0.008 %Cu ≤ 0.03% and comprising optionally one or more of the following elements, in weight percentage: V ≤ 0.2 % the remainder of the composition being iron and unavoidable impurities resulting from the smelting, said steel sheet having a microstructure consisting of, in surface fraction: - between 15% and 30% of retained austenite, said retained austenite having a carbon content of at least 0.7% - between 70% and 85% of tempered martensite and - at most 5% of fresh martensite and - at most 5% of bainite. - between 15% and 30% of retained austenite, said retained austenite having a carbon content of at least 0.7% - between 70% and 85% of tempered martensite and - at most 5% of fresh martensite and - at most 5% of bainite.
A debagging system for use in a debagging process during the manufacture of a wind turbine blade, wherein the debagging system comprises: a debagging tool , and conveying means configured to moving the debagging tool along a longitudinal direction of a mould for manufacturing a wind turbine blade part, wherein the debagging tool comprises: a lifting bar for insertion under infusion tools and lifting the infusion tools during the debagging process, the lifting bar having a first end and a second end, and a support frame for carrying the lifting bar, wherein the lifting bar is coupled to the support frame , and wherein the debagging tool is suspended from the conveying means so that the debagging tool during use can be arranged above the mould and be moved along the longitudinal direction of the mould. a debagging tool , and conveying means configured to moving the debagging tool along a longitudinal direction of a mould for manufacturing a wind turbine blade part, wherein the debagging tool comprises: a lifting bar for insertion under infusion tools and lifting the infusion tools during the debagging process, the lifting bar having a first end and a second end, and a support frame for carrying the lifting bar, wherein the lifting bar is coupled to the support frame , and a lifting bar for insertion under infusion tools and lifting the infusion tools during the debagging process, the lifting bar having a first end and a second end, and a support frame for carrying the lifting bar, wherein the lifting bar is coupled to the support frame , and wherein the debagging tool is suspended from the conveying means so that the debagging tool during use can be arranged above the mould and be moved along the longitudinal direction of the mould.