mhurhangee/ep-ind-claims huggingface dataset:
A piston for use in an automatic transmission, comprising: a cylindrical portion formed of a metal material; an elastomer coupled to said cylindrical portion; said elastomer including an ethylene-acrylic polymer in an amount of 25 wt. % to 75 wt. %, based on the total weight of said elastomer, said ethylene-acrylic polymer including methyl acrylate in an amount of 40 wt. % to 70 wt. % and an ethylene monomer in an amount of 20 wt. % to 60 wt. %, based on the total weight of said ethylene-acrylic polymer; said elastomer including a curing agent in an amount of at least 0.5 wt. %, based on the total weight of said elastomer; said elastomer being cured by exposing said elastomer to a temperature of at least 100°C continuously for a single period of time; said elastomer including amide cross-links; said elastomer including imide cross-links in an amount of 0 % to 5 %, based on the total amount of cross-links of the elastomer; and said piston being formed without exposing said elastomer to a temperature of at least 100°C continuously for a second period of time. a cylindrical portion formed of a metal material; an elastomer coupled to said cylindrical portion; said elastomer including an ethylene-acrylic polymer in an amount of 25 wt. % to 75 wt. %, based on the total weight of said elastomer, said ethylene-acrylic polymer including methyl acrylate in an amount of 40 wt. % to 70 wt. % and an ethylene monomer in an amount of 20 wt. % to 60 wt. %, based on the total weight of said ethylene-acrylic polymer; said elastomer including a curing agent in an amount of at least 0.5 wt. %, based on the total weight of said elastomer; said elastomer being cured by exposing said elastomer to a temperature of at least 100°C continuously for a single period of time; said elastomer including amide cross-links; said elastomer including imide cross-links in an amount of 0 % to 5 %, based on the total amount of cross-links of the elastomer; and said piston being formed without exposing said elastomer to a temperature of at least 100°C continuously for a second period of time.
A polybenzimidazole carbon fiber comprising: a structure obtained by turning a precursor fiber including polybenzimidazole into a carbon fiber under application of heat, wherein the polybenzimidazole includes a structure represented by General Formula or General Formula below as a structural unit, and wherein the polybenzimidazole carbon fiber has an elastic modulus in tension of 100 GPa or more and a tensile strength of 0.8 GPa or more: where in the General Formulas and, R 1 and R 3 each represent a trivalent or tetravalent group of one selected from the group consisting of aryl groups and unsaturated heterocyclic groups that are expressed by any one of Structural Formulas to below, and R 2 represents a bivalent group of one selected from the group consisting of aryl groups and unsaturated heterocyclic groups that are expressed by any one of the Structural Formulas to, alkenylene groups including from 2 to 4 carbon atoms, an oxygen atom, a sulfur atom, and a sulphonyl group:., wherein the polybenzimidazole carbon fiber is a continuous fiber having a fiber diameter of 8 μm or more. a structure obtained by turning a precursor fiber including polybenzimidazole into a carbon fiber under application of heat, wherein the polybenzimidazole includes a structure represented by General Formula or General Formula below as a structural unit, and wherein the polybenzimidazole carbon fiber has an elastic modulus in tension of 100 GPa or more and a tensile strength of 0.8 GPa or more: where in the General Formulas and, R 1 and R 3 each represent a trivalent or tetravalent group of one selected from the group consisting of aryl groups and unsaturated heterocyclic groups that are expressed by any one of Structural Formulas to below, and R 2 represents a bivalent group of one selected from the group consisting of aryl groups and unsaturated heterocyclic groups that are expressed by any one of the Structural Formulas to, alkenylene groups including from 2 to 4 carbon atoms, an oxygen atom, a sulfur atom, and a sulphonyl group:., wherein the polybenzimidazole carbon fiber is a continuous fiber having a fiber diameter of 8 μm or more.
A compound of Formula, or salt thereof: wherein: n is an integer of 0 or 1; R is selected from the group consisting of halogen, hydroxy, alkyl, and alkoxy; R 1 is -C 1-3 alkylene-O-C 1-3 alkyl; R 2 is selected from the group consisting of hydrogen, methyl, ethyl, n-propyl, n-butyl, -CH 2 OCH 3, -CH 2 OCH 2 CH 3, and -CH 2 CH 2 OCH 3; and R 3 is alkyl, aralkyl, wherein the alkyl or alkyl portion of the aralkyl can be optionally interrupted by one or more non-peroxidic -O- atoms, and wherein the aryl portion of the aralkyl can be optionally substituted with halogen, hydroxy, alkyl, alkoxy, or combinations thereof, and wherein R 3 has at least 4 carbon atoms and up to 12 carbon atoms. n is an integer of 0 or 1; R is selected from the group consisting of halogen, hydroxy, alkyl, and alkoxy; R 1 is -C 1-3 alkylene-O-C 1-3 alkyl; R 2 is selected from the group consisting of hydrogen, methyl, ethyl, n-propyl, n-butyl, -CH 2 OCH 3, -CH 2 OCH 2 CH 3, and -CH 2 CH 2 OCH 3; and R 3 is alkyl, aralkyl, wherein the alkyl or alkyl portion of the aralkyl can be optionally interrupted by one or more non-peroxidic -O- atoms, and wherein the aryl portion of the aralkyl can be optionally substituted with halogen, hydroxy, alkyl, alkoxy, or combinations thereof, and wherein R 3 has at least 4 carbon atoms and up to 12 carbon atoms.
A composite material made of a plastic base material selected from polypropylene, polylactic acid, polymethylmetacrylate, ABS polycarbonate, polyoxymethylene, polyethylene, and particles or fibers of renewable raw materials such as wood fibers, abaca, cellulose fibers, pulp fibers, regenerated cellulose fibers, hemp fibers or flax fibers embedded therein, and optionally a bonding agent, characterized in that it further contains a wetting agent selected from a polyethylene glycol with an average molecular weight of 90 to 40,000 and/or a polyvalent alcohol, and that it comprises 30 to 95 wt% plastic base material, 5 to 70 wt% particles or fibers of renewable raw materials, 0.5 to 21 wt% wetting agent, and up to 20 wt% additives..
Process for the production of a compound of formula wherein R 1 is a C 1 - C 4 -alkyl moiety, preferably -CH 3 or -CH 2 CH 3, and R 2 is (the * is showing where the bond is localized), and wherein a compound of formula is reacted with a compound of formula wherein the R 1 and R 2 have the same meanings as defined above for the compound of formula in the presence of at least one catalyst of formula wherein R 3, R 4, R 5 and R 6 signify independently from each other -CH 3, -OCH 3, -NO 2 or halogen, and W, X, Y and Z signify independently from each other a neutral or ionic ligand, wherein W, X, Y and Z can be monodentate or bidentate with the proviso that the Ru is always six times coordinated, and m, n, o and p signify an integer 0, 1, 2 or 3 q signifies an integer 1, 2, 3 or 4. R 1 is a C 1 - C 4 -alkyl moiety, preferably -CH 3 or -CH 2 CH 3, and R 2 is (the * is showing where the bond is localized), and wherein a compound of formula is reacted with a compound of formula wherein the R 1 and R 2 have the same meanings as defined above for the compound of formula in the presence of at least one catalyst of formula wherein R 3, R 4, R 5 and R 6 signify independently from each other -CH 3, -OCH 3, -NO 2 or halogen, and W, X, Y and Z signify independently from each other a neutral or ionic ligand, wherein W, X, Y and Z can be monodentate or bidentate with the proviso that the Ru is always six times coordinated, and m, n, o and p signify an integer 0, 1, 2 or 3 q signifies an integer 1, 2, 3 or 4. a compound of formula is reacted with a compound of formula wherein the R 1 and R 2 have the same meanings as defined above for the compound of formula in the presence of at least one catalyst of formula wherein R 3, R 4, R 5 and R 6 signify independently from each other -CH 3, -OCH 3, -NO 2 or halogen, and W, X, Y and Z signify independently from each other a neutral or ionic ligand, wherein W, X, Y and Z can be monodentate or bidentate with the proviso that the Ru is always six times coordinated, and m, n, o and p signify an integer 0, 1, 2 or 3 q signifies an integer 1, 2, 3 or 4. R 3, R 4, R 5 and R 6 signify independently from each other -CH 3, -OCH 3, -NO 2 or halogen, and W, X, Y and Z signify independently from each other a neutral or ionic ligand, wherein W, X, Y and Z can be monodentate or bidentate with the proviso that the Ru is always six times coordinated, and m, n, o and p signify an integer 0, 1, 2 or 3 q signifies an integer 1, 2, 3 or 4.
An apparatus comprising a vehicle configured for travel along a road, the vehicle comprising a cabin in which at least one occupant rides and an inbound audio channel, the inbound audio channel comprising an external-microphone set that includes one or more microphones disposed to receive a raw audio signal from outside the cabin and an internal-loudspeaker set that comprises one or more loudspeakers disposed to radiate sound into the cabin in response to the external-microphone set having received the raw audio signal, and a signal processor that is configured to apply a filter to the raw audio signal to generate a filtered audio signal that is then broadcast into the cabin using the internal-loudspeaker set, wherein the signal processor is further configured to identify, in the raw audio signal, a siren, the apparatus being characterised in that the filter is configured to distinguish a stationary signal from a transitory signal, wherein the stationary signal is one whose spectrum is approximately constant over time and the transitory signal is a signal that is not a stationary signal, wherein the signal processor is further configured to transition between broadcasting the raw audio signal into the cabin and broadcasting the filtered signal into the cabin. a vehicle configured for travel along a road, the vehicle comprising a cabin in which at least one occupant rides and an inbound audio channel, the inbound audio channel comprising an external-microphone set that includes one or more microphones disposed to receive a raw audio signal from outside the cabin and an internal-loudspeaker set that comprises one or more loudspeakers disposed to radiate sound into the cabin in response to the external-microphone set having received the raw audio signal, and a signal processor that is configured to apply a filter to the raw audio signal to generate a filtered audio signal that is then broadcast into the cabin using the internal-loudspeaker set, wherein the signal processor is further configured to identify, in the raw audio signal, a siren, the apparatus being characterised in that the filter is configured to distinguish a stationary signal from a transitory signal, wherein the stationary signal is one whose spectrum is approximately constant over time and the transitory signal is a signal that is not a stationary signal, wherein the signal processor is further configured to transition between broadcasting the raw audio signal into the cabin and broadcasting the filtered signal into the cabin.
A system for delivering a charged particle beam at a target in a patient, the system comprising an output device and data processing hardware, wherein the output device is configured to deliver the charged particle beam at a plurality of control points with respect to the target, wherein the output device is adapted to deliver a substantially continuous charged particle beam about the plurality of control points; wherein the system is configured to, via the data processing hardware: identify a pre-selected control point sampling frequency, the control point sampling frequency indicating an angle or position spread between adjacent control points; using such control point sampling frequency, derive the control points; pre-define energy layers based on one or both of the control points and the control point sampling frequency, wherein each energy layer defines a depth within the target associated with a beam energy which is configured to reach the depth within the target; and sort the energy layers between the control points. identify a pre-selected control point sampling frequency, the control point sampling frequency indicating an angle or position spread between adjacent control points; using such control point sampling frequency, derive the control points; pre-define energy layers based on one or both of the control points and the control point sampling frequency, wherein each energy layer defines a depth within the target associated with a beam energy which is configured to reach the depth within the target; and sort the energy layers between the control points.
A battery state-of-charge calculation device, comprising: a first state-of-charge calculation unit configured to output a first state of charge calculated on the basis of voltage data; a second state-of-charge calculation unit configured to output a second state of charge calculated on the basis of current data; an impedance voltage calculation unit configured to calculate an impedance voltage value on the basis of an effective state of charge and the current data, the impedance voltage value being a voltage value resulting from an internal resistance of the battery; a static determination unit configured to determine that the impedance voltage value remains for a predetermined time or longer within a range identified by a predetermined threshold value and to output the determination result; and a state-of-charge decision unit configured to, on the basis of the determination result, output the first state of charge as the effective state of charge where the impedance voltage value is static and to output the second state of charge as the effective state of charge where the impedance voltage value is not static. a first state-of-charge calculation unit configured to output a first state of charge calculated on the basis of voltage data; a second state-of-charge calculation unit configured to output a second state of charge calculated on the basis of current data; an impedance voltage calculation unit configured to calculate an impedance voltage value on the basis of an effective state of charge and the current data, the impedance voltage value being a voltage value resulting from an internal resistance of the battery; a static determination unit configured to determine that the impedance voltage value remains for a predetermined time or longer within a range identified by a predetermined threshold value and to output the determination result; and a state-of-charge decision unit configured to, on the basis of the determination result, output the first state of charge as the effective state of charge where the impedance voltage value is static and to output the second state of charge as the effective state of charge where the impedance voltage value is not static.
A dump plate device comprising: - a dump plate for supporting a vehicle adjacent to an edge at a worksite when dumping a load over the edge by the vehicle; wherein the dump plate device further comprises: - at least one positioning device (40, 62) fixed to the dump plate, wherein each positioning device (40, 62) is configured to wirelessly transmit one or more plate position signals containing information indicative of an actual plate position of the dump plate. - a dump plate for supporting a vehicle adjacent to an edge at a worksite when dumping a load over the edge by the vehicle; wherein the dump plate device further comprises: - at least one positioning device (40, 62) fixed to the dump plate, wherein each positioning device (40, 62) is configured to wirelessly transmit one or more plate position signals containing information indicative of an actual plate position of the dump plate. - at least one positioning device (40, 62) fixed to the dump plate, wherein each positioning device (40, 62) is configured to wirelessly transmit one or more plate position signals containing information indicative of an actual plate position of the dump plate.
An image sensor (1000A; 1000C), comprising: a semiconductor substrate including a plurality of pixel regions separated by an isolation region and having a first surface and an opposing second surface, wherein the second surface receives incident light; a plurality of color filters respectively disposed on the second surface of the semiconductor substrate to correspond to the plurality of pixel regions; a cover insulating layer disposed on the second surface of the semiconductor substrate and covering the plurality of color filters; a plurality of first transparent electrodes (270; 270b) disposed on the cover insulating layer and spaced apart to respectively overlap the plurality of color filters; an isolation pattern (250; 250b) disposed on the cover insulating layer between the plurality of first transparent electrodes (270; 270b) and having a trench spaced apart from the plurality of first transparent electrodes (270; 270b); a drain electrode (270D; 270D2) disposed in the trench of the isolation pattern (250; 250b) and configured to receive a potential higher than a potential of the first transparent electrodes (270, 270b); and an organic photoelectric layer and a second transparent electrode sequentially disposed on the plurality of first transparent electrodes (270; 270b) and the isolation pattern (250; 250b). a semiconductor substrate including a plurality of pixel regions separated by an isolation region and having a first surface and an opposing second surface, wherein the second surface receives incident light; a plurality of color filters respectively disposed on the second surface of the semiconductor substrate to correspond to the plurality of pixel regions; a cover insulating layer disposed on the second surface of the semiconductor substrate and covering the plurality of color filters; a plurality of first transparent electrodes (270; 270b) disposed on the cover insulating layer and spaced apart to respectively overlap the plurality of color filters; an isolation pattern (250; 250b) disposed on the cover insulating layer between the plurality of first transparent electrodes (270; 270b) and having a trench spaced apart from the plurality of first transparent electrodes (270; 270b); a drain electrode (270D; 270D2) disposed in the trench of the isolation pattern (250; 250b) and configured to receive a potential higher than a potential of the first transparent electrodes (270, 270b); and an organic photoelectric layer and a second transparent electrode sequentially disposed on the plurality of first transparent electrodes (270; 270b) and the isolation pattern (250; 250b).
A hinge mechanism for spectacles comprising a frame front and two side bars, the frame front comprises two side sections for attaching the side bars to the frame front, each side section being in the form of a bent metal plate and each side section comprising a connection hole and a notch, and each side bar comprises an axial groove, the axial groove divides an upper end of the side bar in an outside elastic part and an inside elastic part, - the outside elastic part and the inside elastic part both generate a spring force working towards the axial groove, - the outside elastic part of the side bar is engaging the connection hole of the side section, and - the inside elastic part of the side bar is engaging the notch of the side section, - the spring force of the outside elastic part is pressuring the outside elastic part against the side of the connection hole, and - the spring force of the inside elastic part is pressuring the inside elastic part against the notch, - the outside elastic part comprises a connection hook, and the connection hook is engaging the connection hole in the side section, preventing the outside elastic part from sliding out of the connection hole. - the outside elastic part and the inside elastic part both generate a spring force working towards the axial groove, - the outside elastic part of the side bar is engaging the connection hole of the side section, and - the inside elastic part of the side bar is engaging the notch of the side section, - the spring force of the outside elastic part is pressuring the outside elastic part against the side of the connection hole, and - the spring force of the inside elastic part is pressuring the inside elastic part against the notch, - the outside elastic part comprises a connection hook, and the connection hook is engaging the connection hole in the side section, preventing the outside elastic part from sliding out of the connection hole.
An apparatus comprising an enclosure for an antenna arrangement comprising physically integrated parts including: a first part of first injection moldable plastic; a second part of second injection moldable plastic, wherein the first injection moldable plastic is more dense than the second injection moldable plastic and wherein the first part and the second part are contiguous, wherein the first part defines a skeleton having one or more voids and wherein the second part infills the at least some of the one or more voids of the skeleton. a first part of first injection moldable plastic; a second part of second injection moldable plastic, wherein the first injection moldable plastic is more dense than the second injection moldable plastic and wherein the first part and the second part are contiguous, wherein the first part defines a skeleton having one or more voids and wherein the second part infills the at least some of the one or more voids of the skeleton.
Computer-based method for determining the range of a target object from an electro-optical sensor unit based on monocular sensor data of the sensor unit, the electro-optical sensor unit being an electro-optical image capture unit, wherein - the sensor data comprise a first and a second dataset, each dataset comprising a respective representation of the target object, and the two datasets having been or being generated for two different recording locations (O N-1, O N), - the range is determined as a weighted combination of at least a first (E 1) and a second (E 2) range value, - the first range value (E 1) is determined based on the first and second datasets on the basis of triangulation, - the second range value (E 2) is determined on the basis of, in particular determined, dimensions, obtained from the first and second datasets at the sensor level of the sensor unit, and a difference in dimensions (ΔG) of the representations of the target object, and - the recording locations (O N-1, O N) and/or a distance (ΔD) between the recording locations (O N-1, O N) is/are determined and is/are used to determine the first (E 1) and second (E 2) range values. - the sensor data comprise a first and a second dataset, each dataset comprising a respective representation of the target object, and the two datasets having been or being generated for two different recording locations (O N-1, O N), - the range is determined as a weighted combination of at least a first (E 1) and a second (E 2) range value, - the first range value (E 1) is determined based on the first and second datasets on the basis of triangulation, - the second range value (E 2) is determined on the basis of, in particular determined, dimensions, obtained from the first and second datasets at the sensor level of the sensor unit, and a difference in dimensions (ΔG) of the representations of the target object, and - the recording locations (O N-1, O N) and/or a distance (ΔD) between the recording locations (O N-1, O N) is/are determined and is/are used to determine the first (E 1) and second (E 2) range values.