mhurhangee/ep-ind-claims huggingface dataset:
Amethod of producing recycled reinforcing fibers, the method comprising: a step of treating a fiber-reinforced resin material comprising a resin and reinforcing fibers with an acidic solution comprising an inorganic acid for the resin to be swollen by the acidic solution; and a step of treating the fiber-reinforced resin material, whose resin is swollen by the acidic solution, with a treatment solution comprising an oxidizing agent to dissolve at least part of the resin of the fiber-reinforced resin material in the treatment solution, wherein the resin comprises a resin component having a chemical structure with basic properties, and the inorganic acid comprises at least one selected from the group consisting of sulfuric acid, hydrochloric acid, and phosphoric acid. a step of treating a fiber-reinforced resin material comprising a resin and reinforcing fibers with an acidic solution comprising an inorganic acid for the resin to be swollen by the acidic solution; and a step of treating the fiber-reinforced resin material, whose resin is swollen by the acidic solution, with a treatment solution comprising an oxidizing agent to dissolve at least part of the resin of the fiber-reinforced resin material in the treatment solution, wherein the resin comprises a resin component having a chemical structure with basic properties, and
An optical device for imparting an asymmetrical light beam, said optical device comprising a lens having: (i) an exit diopter which comprises an exit surface consisting of a convex surface defining a curved rear portion and a curved front portion, said curved front portion comprising as a distal part from the rear surface a planar face perpendicular to a plane base surface of the lens; (ii) an entry diopter including at least one concave lodging for lodging at least one light source having a curved surface from which light is issued, the surface of the concave lodging facing at least partly the curved rear portion, wherein the lens is arranged such that at least 50% of the light emitted directly by the light source(s) is totally reflected on the curved rear portion and at least 50% of the light reflected on surfaces of the lens plus light directly emitted by the light source(s) is transmitted through the front portion and such that a curvature of the surface of the lodging is less than the curvature of the surface of the light source. (i) an exit diopter which comprises an exit surface consisting of a convex surface defining a curved rear portion and a curved front portion, said curved front portion comprising as a distal part from the rear surface a planar face perpendicular to a plane base surface of the lens; (ii) an entry diopter including at least one concave lodging for lodging at least one light source having a curved surface from which light is issued, the surface of the concave lodging facing at least partly the curved rear portion,
A casing (10, 10A) for a radial compressor comprising: an intake portion which has a cylindrical shape, extending in a direction of a rotational axis of an impeller and opening in the direction of the rotational axis and is configured to introduce gas into the impeller; a scroll portion which is disposed on an outer circumferential side of the impeller and the intake portion to extend in a circumferential direction, has a discharge port opening in the circumferential direction and a scroll flow path through which the gas from the impeller flows toward the discharge port, and includes a resin material having a gradually increasing external shape dimension; and a plurality of ribs which connect an outer circumferential surface of the intake portion and an outer surface of the scroll portion, wherein the plurality of ribs are provided at intervals in the circumferential direction, an installation interval gradually decreases toward the discharge port in the circumferential direction, characterized in that the plurality of ribs are formed to extend in a radial direction of the scroll portion and connect with an outer surface of the scroll portion, and a length dimension of each of the plurality of ribs in a radial direction of the scroll portion on the outer surface of the scroll portion gradually decreases toward the discharge port in the circumferential direction. an intake portion which has a cylindrical shape, extending in a direction of a rotational axis of an impeller and opening in the direction of the rotational axis and is configured to introduce gas into the impeller; a scroll portion which is disposed on an outer circumferential side of the impeller and the intake portion to extend in a circumferential direction, has a discharge port opening in the circumferential direction and a scroll flow path through which the gas from the impeller flows toward the discharge port, and includes a resin material having a gradually increasing external shape dimension; and a plurality of ribs which connect an outer circumferential surface of the intake portion and an outer surface of the scroll portion, wherein the plurality of ribs are provided at intervals in the circumferential direction, an installation interval gradually decreases toward the discharge port in the circumferential direction, characterized in that the plurality of ribs are formed to extend in a radial direction of the scroll portion and connect with an outer surface of the scroll portion, and a length dimension of each of the plurality of ribs in a radial direction of the scroll portion on the outer surface of the scroll portion gradually decreases toward the discharge port in the circumferential direction.
Process for the production of alkyl hydroperoxide by oxidation of a saturated hydrocarbon using molecular oxygen, comprising the following successive steps: - oxidation of the hydrocarbon using oxygen, - separation of at least a part of the nonoxidized hydrocarbon from the reaction medium and recycling of said nonoxidized hydrocarbon to the oxidation step, - washing, with water, of the oxidation reaction medium recovered after the separation of at least a part of the nonoxidized saturated hydrocarbon, in order to extract the water-soluble oxidized by-products and to recover an organic phase comprising the alkyl hydroperoxide, the nonoxidized hydrocarbon and water-insoluble oxidized products, characterized in that the washing step is carried out in a counter-current liquid/liquid extraction column, with the washing water being fed at the top of the column and the reaction medium to be washed, containing the alkyl hydroperoxide, being fed at an intermediate position of the column, and in that the saturated hydrocarbon to be oxidized is fed into the washing column at a level below that at which the medium to be washed is fed; the process being characterized in that the hydrocarbon is selected from the group consisting of cyclohexane, cyclooctane, cyclododecane and decalin and in that the hydrocarbon fed in the washing operation is a hydrocarbon which does not originate from a recycling loop of the oxidation process. - oxidation of the hydrocarbon using oxygen, - separation of at least a part of the nonoxidized hydrocarbon from the reaction medium and recycling of said nonoxidized hydrocarbon to the oxidation step, - washing, with water, of the oxidation reaction medium recovered after the separation of at least a part of the nonoxidized saturated hydrocarbon, in order to extract the water-soluble oxidized by-products and to recover an organic phase comprising the alkyl hydroperoxide, the nonoxidized hydrocarbon and water-insoluble oxidized products, characterized in that the washing step is carried out in a counter-current liquid/liquid extraction column, with the washing water being fed at the top of the column and the reaction medium to be washed, containing the alkyl hydroperoxide, being fed at an intermediate position of the column, and in that the saturated hydrocarbon to be oxidized is fed into the washing column at a level below that at which the medium to be washed is fed;
A method for wireless communications at a user equipment, UE, the method comprising: receiving signaling that indicates support, by a network device, of a header carrying channel quality information; receiving, from the network device, a first message of a random access procedure; identifying channel quality information for a communication link between the network device and the UE; and transmitting, to the network device and in response to the first message and to receiving the signaling that indicates support, by the network device, of a header carrying channel quality information, a second message of the random access procedure, the second message comprising an indication of the identified channel quality information in a header of a media access control, MAC, protocol data unit, PDU, carrying the second message generated by a single protocol layer of a control plane protocol stack. receiving signaling that indicates support, by a network device, of a header carrying channel quality information; receiving, from the network device, a first message of a random access procedure; identifying channel quality information for a communication link between the network device and the UE; and transmitting, to the network device and in response to the first message and to receiving the signaling that indicates support, by the network device, of a header carrying channel quality information, a second message of the random access procedure, the second message comprising an indication of the identified channel quality information in a header of a media access control, MAC, protocol data unit, PDU, carrying the second message generated by a single protocol layer of a control plane protocol stack.
A composition comprising levetiracetam or a pharmaceutically acceptable salt, hydrate, solvate, or polymorph thereof and donepezil or a pharmaceutically acceptable salt, hydrate, solvate, or polymorph thereof in separate dosage form packaged together or in a unit dosage form.
Filter element for filtering a fluid, in particular of an internal combustion engine, in particular of a motor vehicle, having a filter bellows made of a filter medium which is zigzag-folded along folding edges to form straight folds which extend each between opposite front edges (22a, 22b) of the filter bellows, wherein the folds on the side of the front edges (22a, 22b) each are laterally sealed, in particular by means of at least one sealant track or one lateral strip, wherein the filter bellows comprises at least a first element portion and a second element portion, which feature each front edge surfaces (20a, 20b) and (21a, 21b) running substantially parallel to one another on opposite front sides (18, 19), wherein the front edge surfaces (20a, 20b) undergo a directional change from one element portion (16, 17) to the other element portion (17, 16), wherein the directional change of the front edge surfaces (20a, 20b) features an obtuse angle (a) and the fold edges continue in parallel, while the front edge surfaces bend at an angle and continue substantially parallel to one another.
Sensor circuit comprising a plurality of optical sensors, having: a first optical sensor comprising a first optical transmitter and a first optical receiver, wherein the first optical transmitter is connected to a first control signal input and the first optical receiver is connected to a first measurement signal output; and a second optical sensor comprising a second optical transmitter and a second optical receiver, wherein the second optical transmitter is connected to a second control signal input and the second optical receiver is connected to a second measurement signal output; characterized in that the first optical receiver and the second optical receiver are connected to a common control signal input (Sx); and a first modulation device for modulating a first measurement signal of the first optical receiver using a first modulation factor is connected between the first optical receiver and the first measurement signal output and a second modulation device for modulating a second measurement signal of the second optical receiver using a second modulation factor, which is different from the first modulation factor, is connected between the second optical receiver and the second measurement signal output. a first optical sensor comprising a first optical transmitter and a first optical receiver, wherein the first optical transmitter is connected to a first control signal input and the first optical receiver is connected to a first measurement signal output; and a second optical sensor comprising a second optical transmitter and a second optical receiver, wherein the second optical transmitter is connected to a second control signal input and the second optical receiver is connected to a second measurement signal output; characterized in that the first optical receiver and the second optical receiver are connected to a common control signal input (Sx); and a first modulation device for modulating a first measurement signal of the first optical receiver using a first modulation factor is connected between the first optical receiver and the first measurement signal output and a second modulation device for modulating a second measurement signal of the second optical receiver using a second modulation factor, which is different from the first modulation factor, is connected between the second optical receiver and the second measurement signal output.
A charge integrating circuit, comprising: an amplifier circuit having a first input terminal, a second input terminal, and an output terminal; a capacitive element (C 2) provided between the first input terminal and the output terminal of the amplifier circuit for integrating the input charge; and a second switch (SW 2) provided in parallel to the capacitive element between the first input terminal and the output terminal of the amplifier circuit, wherein the amplifier circuit includes: a driving section including a PMOS transistor (T 1) and an NMOS transistor (T 2), respective drain terminals thereof being connected to each other, wherein this connection point is connected to the output terminal (P O); characterised by: a first switch (SW 1) provided between a first reference potential input terminal to which a first reference potential is input and a gate terminal of the PMOS transistor (T 1), the first switch turning off the PMOS transistor (T 1) by applying the first reference potential to the gate terminal of the PMOS transistor, and wherein the integrating circuit further comprises a controlling section configured to control the respective open/ close operations of the first switch (SW 1) and the second switch (SW 2) such that, when the second switch (SW 2) is closed to discharge the capacitive element (C 2), the first switch (SW 1) included in the amplifier circuit is also closed. an amplifier circuit having a first input terminal, a second input terminal, and an output terminal; a capacitive element (C 2) provided between the first input terminal and the output terminal of the amplifier circuit for integrating the input charge; and a second switch (SW 2) provided in parallel to the capacitive element between the first input terminal and the output terminal of the amplifier circuit, wherein the amplifier circuit includes: a driving section including a PMOS transistor (T 1) and an NMOS transistor (T 2), respective drain terminals thereof being connected to each other, wherein this connection point is connected to the output terminal (P O); a driving section including a PMOS transistor (T 1) and an NMOS transistor (T 2), respective drain terminals thereof being connected to each other, wherein this connection point is connected to the output terminal (P O); a first switch (SW 1) provided between a first reference potential input terminal to which a first reference potential is input and a gate terminal of the PMOS transistor (T 1), the first switch turning off the PMOS transistor (T 1) by applying the first reference potential to the gate terminal of the PMOS transistor, and wherein the integrating circuit further comprises a controlling section configured to control the respective open/ close operations of the first switch (SW 1) and the second switch (SW 2) such that, when the second switch (SW 2) is closed to discharge the capacitive element (C 2), the first switch (SW 1) included in the amplifier circuit is also closed.
A flywheel module (5-5"'; 5.1-5.4) comprising a flywheel, as well as a speed transforming device having a first in/output (I 1) which is connected to the flywheel and a second in/output (I 2) which can be coupled to a drive line of a vehicle positioned between a drive source and driven wheels, and/or to one or more of the driven wheels (W 1) or further wheels (W 2) of the vehicle and/or to the drive source of the vehicle, which speed transforming device can provide a continuously variable control of the torque between the first and the second in/output, which speed transforming device comprises at least a single motor and/or generator, as well as a bypass speed transforming device having at least three rotational members, a first rotational member of which being connected to the first in/output (I 1), a second rotational member of which being connected to the second in/output (I 2) and the third rotational member of which being connected to the motor and/or generator, where the flywheel module comprises energizing means for the motor and/or generator, as well as a control unit which can control the energizing means, the control unit being in a position to brake or drive the drive line and/or one or more of the driven wheels or further wheels by controlling the energizing means of the motor and/or generator, characterised in that the speed transforming device further includes a clutch (C; C 1,C 2) which is positioned between one of the in/outputs (I 1, I 2) and the rotational member connected thereto or between two of the rotational members.
Recuperator, comprising: - at least a first recuperator unit with heat-exchanging channels (5, 6) extending parallel to each other; - a first header placed on a first side of the recuperator unit and having a triangular cross-section, one surface of which connects to a first end of the heat-exchanging channels (5, 6) of the recuperator unit; - a second header placed on the second side of the recuperator unit and having a triangular cross-section, one surface of which connects to the second side of the heat-exchanging channels (5, 6) of the recuperator unit; - supply ducts (1, 4) extending to a second surface of the first and the second header; and - discharge ducts (2, 3) extending from the third surface of the first and the second header, - wherein the supply ducts (1, 4) and the discharge ducts (2, 3) extend transversely to the longitudinal direction of the heat-exchanging channels (5, 6), characterized in that - the supply (1, 4) and the discharge ducts (2, 3) extend at the sides of the headers (63, 64) lying opposite the recuperator units, - the passage of the supply ducts (1, 4) decreases in the flow direction, and - the passage of the discharge ducts (2, 3) increases in the flow direction. - at least a first recuperator unit with heat-exchanging channels (5, 6) extending parallel to each other; - a first header placed on a first side of the recuperator unit and having a triangular cross-section, one surface of which connects to a first end of the heat-exchanging channels (5, 6) of the recuperator unit; - a second header placed on the second side of the recuperator unit and having a triangular cross-section, one surface of which connects to the second side of the heat-exchanging channels (5, 6) of the recuperator unit; - supply ducts (1, 4) extending to a second surface of the first and the second header; and - discharge ducts (2, 3) extending from the third surface of the first and the second header, - wherein the supply ducts (1, 4) and the discharge ducts (2, 3) extend transversely to the longitudinal direction of the heat-exchanging channels (5, 6), characterized in that - the supply (1, 4) and the discharge ducts (2, 3) extend at the sides of the headers (63, 64) lying opposite the recuperator units, - the passage of the supply ducts (1, 4) decreases in the flow direction, and - the passage of the discharge ducts (2, 3) increases in the flow direction.
Method for determining a measurement strategy for measuring a measurement object using a coordinate measuring machine, wherein the measurement object is measured according to a measurement strategy and a measurement quality of the measurement is determined, wherein the measurement strategy is altered if the measurement quality is greater than a predetermined target minimum measurement quality, wherein the measurement strategy is altered in such a way that the time required to measure the measurement object in accordance with the altered measurement strategy and/or the computational outlay required to measure the measurement object in accordance with the altered measurement strategy and/or the data storage capacity required to measure the measurement object in accordance with the altered measurement strategy is reduced, with the altered measurement strategy being determined as new measurement strategy, characterized in that a sensor quality is additionally determined during the measurement, wherein at least one sensor parameter of a sensor of the coordinate measuring machine is altered if the sensor quality is greater than a target minimum sensor quality known in advance, wherein the sensor parameter is altered in such a way that the time required to measure the measurement object in accordance with the altered measurement strategy and/or the computational outlay required to measure the measurement object in accordance with the altered measurement strategy and/or the data storage capacity required to measure the measurement object in accordance with the altered measurement strategy is reduced.
An artificial mammalian skin substitute product, comprising: (a) a first ("hypodermis-like") layer comprising live mammalian adipocytes (e.g., induced pre-adipocytes) in a first hydrogel carrier; (b) a second ("dermis-like") layer on or directly contacting said first layer, said second layer comprising live mammalian fibroblast cells and live mammalian follicle dermal papilla cells in combination in a second hydrogel carrier; and (c) a third ("epidermis-like") layer on or directly contacting said second layer, said third layer comprising live mammalian keratinocytes and live mammalian melanocytes in combination in a third hydrogel carrier, wherein said first, second, and/or third hydrogel carriers are cross-linked and comprise hyaluronic acid and/or gelatin, wherein said second and third layers are cross-linked with one another and said first and second layers are cross-linked with one another, and wherein said second and/or third hydrogel carriers further comprise collagen. (a) a first ("hypodermis-like") layer comprising live mammalian adipocytes (e.g., induced pre-adipocytes) in a first hydrogel carrier; (b) a second ("dermis-like") layer on or directly contacting said first layer, said second layer comprising live mammalian fibroblast cells and live mammalian follicle dermal papilla cells in combination in a second hydrogel carrier; and (c) a third ("epidermis-like") layer on or directly contacting said second layer, said third layer comprising live mammalian keratinocytes and live mammalian melanocytes in combination in a third hydrogel carrier, wherein said first, second, and/or third hydrogel carriers are cross-linked and comprise hyaluronic acid and/or gelatin, wherein said second and third layers are cross-linked with one another and said first and second layers are cross-linked with one another, and wherein said second and/or third hydrogel carriers further comprise collagen.
A delta like ligand-4 antagonist for use in a method of treating ovarian or colorectal cancer in a subject that has a blood pressure which is consistently less than 140 mmHg systolic or 90 mmHg diastolic, the method comprising administering the DLL4 antagonist and monitoring the subject for the development of hypertension, wherein the DLL4 antagonist is an immunoglobulin molecule that specifically binds to DLL4.