mhurhangee/ep-ind-claims huggingface dataset:
A work vehicle configured to travel in a field where a crop row is planted, the work vehicle comprising: a distance sensor configured to irradiate a plurality of objects present in the field with laser light and receive reflected light from the objects to thereby acquire distance information of each of the objects; a bird's eye image generation unit configured to detect a position of each of the objects on a basis of the distance information and generate a bird's eye image including the detected position of each of the objects as a detection point; a row candidate region generation unit configured to generate one or more row candidate regions including two or more detection points, located within a predetermined distance, from among the detection points included in the bird's eye image; and a crop row recognition unit configured to, for each of the row candidate regions, recognize a straight line corresponding to the crop row using all of the detection points included in the row candidate regions. a distance sensor configured to irradiate a plurality of objects present in the field with laser light and receive reflected light from the objects to thereby acquire distance information of each of the objects; a bird's eye image generation unit configured to detect a position of each of the objects on a basis of the distance information and generate a bird's eye image including the detected position of each of the objects as a detection point; a row candidate region generation unit configured to generate one or more row candidate regions including two or more detection points, located within a predetermined distance, from among the detection points included in the bird's eye image; and a crop row recognition unit configured to, for each of the row candidate regions, recognize a straight line corresponding to the crop row using all of the detection points included in the row candidate regions.
A battery module, comprising: a cell assembly having a plurality of secondary batteries stacked on each other in a front and rear direction; and a base plate configured such that the plurality of secondary batteries of the cell assembly are mounted to an upper portion thereof, the base plate including at least one gas discharge passage having a sidewall elongated in the front and rear direction to communicate with the outside and an open portion formed by opening a portion of the sidewall in one direction and at least one anti-inflammatory mesh sheet configured to cover the open portion. a cell assembly having a plurality of secondary batteries stacked on each other in a front and rear direction; and a base plate configured such that the plurality of secondary batteries of the cell assembly are mounted to an upper portion thereof, the base plate including at least one gas discharge passage having a sidewall elongated in the front and rear direction to communicate with the outside and an open portion formed by opening a portion of the sidewall in one direction and at least one anti-inflammatory mesh sheet configured to cover the open portion.
A surgical system comprising: (a) a surgical instrument comprising: an instrument body (60, 120, 160), wherein the body (60, 120, 160) is operable to communicate with different types of end effector assemblies (16, 80, 150, 180); and a modular end effector assembly (16, 80, 150, 180), wherein the modular end effector assembly (16, 80, 150, 180) is operable to removably couple with the body (60, 120, 160); (b) a power source (14, 28) operable to drive the end effector, wherein the power source comprises a generator; and (c) a detachable control module (12, 26, 300) associated with the modular end effector assembly (16, 80, 150, 180), wherein the detachable control module (12, 26, 300) is operable to control delivery of power from the power source (14, 28) to the end effector assembly based on the particular type of end effector assembly (16, 80, 150, 180), wherein the control module (26, 300) is disposable between the surgical instrument body (60, 120, 160) and the generator. (a) a surgical instrument comprising: an instrument body (60, 120, 160), wherein the body (60, 120, 160) is operable to communicate with different types of end effector assemblies (16, 80, 150, 180); and a modular end effector assembly (16, 80, 150, 180), wherein the modular end effector assembly (16, 80, 150, 180) is operable to removably couple with the body (60, 120, 160); an instrument body (60, 120, 160), wherein the body (60, 120, 160) is operable to communicate with different types of end effector assemblies (16, 80, 150, 180); and a modular end effector assembly (16, 80, 150, 180), wherein the modular end effector assembly (16, 80, 150, 180) is operable to removably couple with the body (60, 120, 160); (b) a power source (14, 28) operable to drive the end effector, wherein the power source comprises a generator; and (c) a detachable control module (12, 26, 300) associated with the modular end effector assembly (16, 80, 150, 180), wherein the detachable control module (12, 26, 300) is operable to control delivery of power from the power source (14, 28) to the end effector assembly based on the particular type of end effector assembly (16, 80, 150, 180), wherein the control module (26, 300) is disposable between the surgical instrument body (60, 120, 160) and the generator.
A method of receiving broadcast signals, the method comprising: receiving broadcast signals and demodulating the received broadcast signals having at least one signal frame by using a preamble symbol and an additional preamble symbol in the at least one signal frame, wherein the preamble symbol includes P1 signaling information indicating types of the signal frame, wherein the additional preamble symbol directly following the preamble symbol includes transmission parameters; frequency deinterleaving the demodulated broadcast signals; parsing the at least one signal frame from the frequency deinterleaved broadcast signals, to output data of Physical Layer Pipes, PLPs; decoding signaling information that signals the data of the PLPs; and decoding the data of the PLPs, wherein the decoding the data of the PLPs includes: time deinterleaving the data of the PLPs, and Multi-Input Multi-Output, MIMO, decoding the time deinterleaved data of the PLPs, wherein each of the preamble symbol and the additional preamble symbol include a main part and two guard intervals at both sides of the main part, wherein the two guard intervals of the preamble symbol are generated by applying f SH frequency shifting to front and back portions of the main part in the preamble symbol, wherein the two guard intervals of the additional preamble symbol are generated by applying -f SH frequency shifting to front and back portions of the main part in the additional preamble symbol. receiving broadcast signals and demodulating the received broadcast signals having at least one signal frame by using a preamble symbol and an additional preamble symbol in the at least one signal frame, wherein the preamble symbol includes P1 signaling information indicating types of the signal frame, wherein the additional preamble symbol directly following the preamble symbol includes transmission parameters; frequency deinterleaving the demodulated broadcast signals; parsing the at least one signal frame from the frequency deinterleaved broadcast signals, to output data of Physical Layer Pipes, PLPs; decoding signaling information that signals the data of the PLPs; and decoding the data of the PLPs, wherein the decoding the data of the PLPs includes: time deinterleaving the data of the PLPs, and Multi-Input Multi-Output, MIMO, decoding the time deinterleaved data of the PLPs, wherein each of the preamble symbol and the additional preamble symbol include a main part and two guard intervals at both sides of the main part, time deinterleaving the data of the PLPs, and Multi-Input Multi-Output, MIMO, decoding the time deinterleaved data of the PLPs, wherein each of the preamble symbol and the additional preamble symbol include a main part and two guard intervals at both sides of the main part, wherein the two guard intervals of the preamble symbol are generated by applying f SH frequency shifting to front and back portions of the main part in the preamble symbol, wherein the two guard intervals of the additional preamble symbol are generated by applying -f SH frequency shifting to front and back portions of the main part in the additional preamble symbol.
Solid composition for oral administration in the form of a tablet containing at least one dye in association with at least one physiologically acceptable excipient, characterised in that it comprises: a) a matrix which consists of at least one lipophilic compound with melting point below 90°C, and optionally at least one amphiphilic compound, in which said at least one dye is at least partly incorporated; b) a matrix which consists of at least one hydrophilic compound, in which the lipophilic matrix, and optionally the amphiphilic matrix are dispersed; c) optionally other physiologically acceptable excipients; d) a gastro-resistant coating; for use in endoscopic evaluation, wherein said at least one dye is selected from among methylene blue, congo red, carmine indigo, toluidine blue or mixtures thereof, and wherein said at least one dye is comprised in an amount ranging between 10 mg and 1500 mg. a) a matrix which consists of at least one lipophilic compound with melting point below 90°C, and optionally at least one amphiphilic compound, in which said at least one dye is at least partly incorporated; b) a matrix which consists of at least one hydrophilic compound, in which the lipophilic matrix, and optionally the amphiphilic matrix are dispersed; c) optionally other physiologically acceptable excipients; d) a gastro-resistant coating;
An epoxy compound having an alkoxysilyl group, comprising: at least one alkoxysilyl group in a core of independently selected from the group consisting of Formulae S11 to S16, independently selected from the group consisting of Formulae S21 to S26, independently selected from the group consisting of Formulae S11 to S16 and Formulae S31 to S38 or independently selected from the group consisting of Formulae S21 to S26 and Formulae S31 to S38; and at least two epoxy groups in a core: in Formulae S11 to S16, at least one of R 1 to R 3 is an alkoxy group having 1 to 5 carbon atoms, the remainder thereof are alkyl groups having 1 to 10 carbon atoms, and the alkoxy group and the alkyl group are linear or branched; in Formulae S21 to S26, at least one of R 1 to R 3 is an alkoxy group having 1 to 5 carbon atoms, the remainder thereof are alkyl groups having 1 to 10 carbon atoms, and the alkoxy group and the alkyl group are linear or branched; in Formulae S31 to S38, at least one of R 1 to R 3 is an alkoxy group having 1 to 5 carbon atoms, the remainder thereof are alkyl groups having 1 to 10 carbon atoms, and the alkoxy group and the alkyl group are linear or branched. at least one alkoxysilyl group in a core of independently selected from the group consisting of Formulae S11 to S16, independently selected from the group consisting of Formulae S21 to S26, independently selected from the group consisting of Formulae S11 to S16 and Formulae S31 to S38 or independently selected from the group consisting of Formulae S21 to S26 and Formulae S31 to S38; and at least two epoxy groups in a core: in Formulae S11 to S16, at least one of R 1 to R 3 is an alkoxy group having 1 to 5 carbon atoms, the remainder thereof are alkyl groups having 1 to 10 carbon atoms, and the alkoxy group and the alkyl group are linear or branched; in Formulae S21 to S26, at least one of R 1 to R 3 is an alkoxy group having 1 to 5 carbon atoms, the remainder thereof are alkyl groups having 1 to 10 carbon atoms, and the alkoxy group and the alkyl group are linear or branched; in Formulae S31 to S38, at least one of R 1 to R 3 is an alkoxy group having 1 to 5 carbon atoms, the remainder thereof are alkyl groups having 1 to 10 carbon atoms, and the alkoxy group and the alkyl group are linear or branched.
A thermoplastic additive composition comprising at least one anticaking agent component selected from silica gels, treated silica gels and talc, and at least one compound conforming to the structure of formula wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, and R 10 are individually selected from the group consisting of hydrogen, C 1 -C 9 alkyl, hydroxy, C 1 -C 9 alkoxy, C 1 -C 9 alkyleneoxy, amine, and C 1 -C 9 alkylamine, halogen, phenyl, alkylphenyl, and geminal or vicinal carbocyclic having up to nine carbon atoms, R' and R" are the same or different and are individually selected from the group consisting of hydrogen, C 1 -C 30 alkyl, hydroxy, amine, polyamine, polyoxyamine, C 1 -C 30 alkylamine, phenyl, halogen, C 1 -C 30 alkoxy, C 1 -C 30 polyoxyalkyl, C -NR 11 C O-R"', and C O-R"', wherein R 11 is selected from the group consisting of C 1 -C 30 alkyl, hydrogen, C 1 -C 30 alkoxy, and C 1 -C 30 polyoxyalkyl, and wherein R"' is selected from the group consisting of hydrogen, a metal ion (such as, without limitation, Na +, K +, Li +,,Ag + and any other monovalent ions), an organic cation (such as ammonium as one non-limiting example), polyoxy-C 2 -C 18 -alkylene, C 1 -C 30 alkyl, C 1 -C 30 alkylene, C 1 -C 30 alkyleneoxy, a steroid moiety (for example, cholesterol), phenyl, polyphenyl, C 1 -C 30 alkylhalide, and C 1 -C 30 alkylamine; wherein at least one of R' and R" is either C -NR 11 C O-R"' or C O-R"', wherein if both R' and R" are C O-R"' then R"' of both R' and R" may be combined into a single bivalent metal ion (such as Ca 2+, as one non-limiting example) or a single trivalent metal overbase (such as Al-OH, for one non-limiting example).
An optical fiber cable having an axis, the optical fiber comprising: a slotted core elongated along the axis, the slotted core including a slot running in parallel with the axis and a groove accessible through the slot; one or more optical fibers placed in the groove; a sheath enclosing the slotted core and the optical fibers; a first strength member embedded in the slotted core and running in parallel with the axis; the optical cable being characterised in that it comprises a second strength member embedded in the sheath and running in parallel with the axis, wherein the first and second strength members are aligned on a plane including the axis; and a bonding portion (23, 25) where the slotted core is bonded with the sheath, the bonding portion ranging over the slotted core in parallel with the axis opposite to the slot of the core member. a slotted core elongated along the axis, the slotted core including a slot running in parallel with the axis and a groove accessible through the slot; one or more optical fibers placed in the groove; a sheath enclosing the slotted core and the optical fibers; a first strength member embedded in the slotted core and running in parallel with the axis; the optical cable being characterised in that it comprises a second strength member embedded in the sheath and running in parallel with the axis, wherein the first and second strength members are aligned on a plane including the axis; and a bonding portion (23, 25) where the slotted core is bonded with the sheath, the bonding portion ranging over the slotted core in parallel with the axis opposite to the slot of the core member.
A refrigerant cycle apparatus comprising: at least a compressor, a radiator, decompression means capable of changing an open degree, a heat absorber, an internal heat exchanger that performs heat exchange between a refrigerant at an outlet of said radiator and the refrigerant at an outlet of said heat absorber, wherein first temperature detection means for detecting a refrigerant temperature between an outlet of said compressor and an inlet of said radiator and second temperature detection means for detecting the refrigerant temperature between the outlet of said radiator and a high-pressure side inlet of said internal heat exchanger, third temperature detection means for detecting an inlet temperature of a medium to be heated and fourth temperature detection means for detecting the outlet temperature of the medium to be heated are provided, characterized in that an opening degree of said decompression means is controlled such that a sum (∑ΔT) of a temperature difference (ΔT1) between a detection temperature by said first temperature detection means and the detection temperature by said fourth temperature detection means and the temperature difference (ΔT2) between the detection temperature by said second temperature detection means and the detection temperature by said third temperature detection means becomes a target value. at least a compressor, a radiator, decompression means capable of changing an open degree, a heat absorber, an internal heat exchanger that performs heat exchange between a refrigerant at an outlet of said radiator and the refrigerant at an outlet of said heat absorber, wherein first temperature detection means for detecting a refrigerant temperature between an outlet of said compressor and an inlet of said radiator and second temperature detection means for detecting the refrigerant temperature between the outlet of said radiator and a high-pressure side inlet of said internal heat exchanger, third temperature detection means for detecting an inlet temperature of a medium to be heated and fourth temperature detection means for detecting the outlet temperature of the medium to be heated are provided, characterized in that an opening degree of said decompression means is controlled such that a sum (∑ΔT) of a temperature difference (ΔT1) between a detection temperature by said first temperature detection means and the detection temperature by said fourth temperature detection means and the temperature difference (ΔT2) between the detection temperature by said second temperature detection means and the detection temperature by said third temperature detection means becomes a target value.
A method of operating a quadrupole mass filter comprising: passing a packet of ions into the quadrupole mass filter while the quadrupole mass filter is operated in a first mode of operation; and then operating the quadrupole mass filter in a second mode of operation that comprises applying one or more drive voltages to the quadrupole mass filter such that ions of said packet are filtered according to their mass to charge ratio; wherein operating the quadrupole mass filter in the first mode of operation comprises not applying the one or more drive voltages to the quadrupole mass filter, or applying the one or more drive voltages at a reduced voltage. passing a packet of ions into the quadrupole mass filter while the quadrupole mass filter is operated in a first mode of operation; and then operating the quadrupole mass filter in a second mode of operation that comprises applying one or more drive voltages to the quadrupole mass filter such that ions of said packet are filtered according to their mass to charge ratio; wherein operating the quadrupole mass filter in the first mode of operation comprises not applying the one or more drive voltages to the quadrupole mass filter, or applying the one or more drive voltages at a reduced voltage.
A petroleum hydrocarbon or a liquid biologically derived fuel selected from biodiesel fuel, ethanol fuel, butanol, ethyl tert-butyl ether or mixtures thereof comprising at least one compound having formula: wherein R 1 is C 1 -C 12 alkyl or C 2 -C 12 alkenyl, R 2 is C 1 -C 12 alkyl or C 3 -C 12 alkenyl, m is an integer from zero to five and n is an integer from one to three, wherein each of the at least one compound of formula is present at a level from 0.01 ppm to 100 ppm. wherein R 1 is C 1 -C 12 alkyl or C 2 -C 12 alkenyl, R 2 is C 1 -C 12 alkyl or C 3 -C 12 alkenyl, m is an integer from zero to five and n is an integer from one to three, wherein each of the at least one compound of formula is present at a level from 0.01 ppm to 100 ppm.
An application and infusion system for applying a resin to one or more fiber tows and for infusing the fiber tows with the resin, wherein each of the fiber tows is moving at a respective fiber speed, the application and infusion system comprising: a deposition and infusion system comprising a plurality of nozzles configured to deposit the resin on a respective one of the fiber tows; and a controller configured to control a flow rate of the resin through each of the nozzles relative to the fiber speed of the respective ones of the fiber tows; wherein the nozzles are configured to deposit the resin on both an upper side and a lower side of the fiber tows; and the deposition and infusion system further comprises a rod oriented in a direction substantially transverse to a feed path of the fiber tows, wherein the nozzles are arranged in two rows with the rod being disposed aft of the two rows of nozzles, wherein the nozzles in a first one of the rows are configured to deposit the resin on one of the sides of the fiber tows, wherein the nozzles in a second one of the rows are configured to deposit the resin on the other side of the fiber tows, and wherein the rod is configured to press the fiber tows against the nozzles. a deposition and infusion system comprising a plurality of nozzles configured to deposit the resin on a respective one of the fiber tows; and a controller configured to control a flow rate of the resin through each of the nozzles relative to the fiber speed of the respective ones of the fiber tows; wherein the nozzles are configured to deposit the resin on both an upper side and a lower side of the fiber tows; and the deposition and infusion system further comprises a rod oriented in a direction substantially transverse to a feed path of the fiber tows, wherein the nozzles are arranged in two rows with the rod being disposed aft of the two rows of nozzles, wherein the nozzles in a first one of the rows are configured to deposit the resin on one of the sides of the fiber tows, wherein the nozzles in a second one of the rows are configured to deposit the resin on the other side of the fiber tows, and wherein the rod is configured to press the fiber tows against the nozzles.
An aerodynamic add-on device for application on the side walls of large commercial vehicles to reduce air resistance, comprising • a profile which has a first end and a second end and having a cross-section in the form of a dune, characterised in that said profile is in the form of an "S" having a concave curve and a convex curve between the first profile end and the second profile end. • a profile which has a first end and a second end and having a cross-section in the form of a dune, characterised in that said profile is in the form of an "S" having a concave curve and a convex curve between the first profile end and the second profile end.
A method for wireless communication at a wireless device, comprising: receiving an assignment of a first portion of a distributed channel availability check, CAC; determining an availability of a sub-band of a shared radio frequency spectrum band during the first portion of the distributed CAC; receiving at least one indication that the sub-band is available during remaining portions of the distributed CAC; and communicating over the sub-band based at least in part on determining the sub-band is available during the first portion of the distributed CAC and the at least one indication that the sub-band is available during remaining portions of the distributed CAC. receiving an assignment of a first portion of a distributed channel availability check, CAC; determining an availability of a sub-band of a shared radio frequency spectrum band during the first portion of the distributed CAC; receiving at least one indication that the sub-band is available during remaining portions of the distributed CAC; and communicating over the sub-band based at least in part on determining the sub-band is available during the first portion of the distributed CAC and the at least one indication that the sub-band is available during remaining portions of the distributed CAC.