mhurhangee/ep-ind-claims huggingface dataset:
A mobile computing device, comprising: a processor; and a plurality of hierarchical or peer related modules (104, 106, 108, 110) for execution by the processor, each of the plurality of modules including resynchronization logic (105, 107, 109, 111) operative to resynchronize a requester module out of the plurality of modules after the requester module enters a non-operative state and restarted using a neighboring hierarchical or peer related module, wherein the plurality of modules cooperate to manage a wireless connection for the mobile computing device, and wherein the wireless connection is maintained when the requester module enters a non-operative state and during the resynchronization of the requester module that entered the non-operative state. a processor; and a plurality of hierarchical or peer related modules (104, 106, 108, 110) for execution by the processor, each of the plurality of modules including resynchronization logic (105, 107, 109, 111) operative to resynchronize a requester module out of the plurality of modules after the requester module enters a non-operative state and restarted using a neighboring hierarchical or peer related module, wherein the plurality of modules cooperate to manage a wireless connection for the mobile computing device, and wherein the wireless connection is maintained when the requester module enters a non-operative state and during the resynchronization of the requester module that entered the non-operative state.
A brush copolymer composition comprising a copolymeric backbone and copolymeric brush arms, wherein: the copolymeric brush arms comprise monomeric repeat units of at least two different acylated poly(alkylene amine)s of formulae and: wherein each R 5 is individually hydrogen or a linear or branched C 1 -C 24 alkyl moiety; each R 6, being different from each R 5 although having the same or a greater number of carbons than each R 5, is individually a linear or branched C 8 -C 24 alkyl moiety; y and z are each 1 or 2; and a sum of m + n is from 90 mol% to 100 mol% of an average degree of polymerization of the copolymeric brush arms; and the copolymeric backbone comprises monomeric repeat units of at least two different acrylate monomers of formulae and: wherein each R 1 and R 3 are individually hydrogen, a linear or branched C 1 -C 4 alkyl moiety, or a mixture thereof; each R 2 is individually a covalently-linked copolymeric brush arm, a residual hydrogen, a residual trisubstituted silyl group in which the substitutions are each individually a linear, branched, and/or cyclic C 1 -C 8 alkyl, aryl, alkaryl, or aralkyl moiety, a residual linear, cyclic, or branched C 1 -C 7 acyl moiety, a residual linear or branched C 1 -C 4 hydroxyalkyl moiety, or a residual monovalent counterion; each R 4 is individually a linear, branched, and/or cyclic C 8 -C 30 alkyl, aryl, alkaryl, or aralkyl moiety; and a sum of a + b is from 90 mol% to 100 mol% of an average degree of polymerization of the copolymeric backbone. wherein each R 5 is individually hydrogen or a linear or branched C 1 -C 24 alkyl moiety; each R 6, being different from each R 5 although having the same or a greater number of carbons than each R 5, is individually a linear or branched C 8 -C 24 alkyl moiety; y and z are each 1 or 2; and a sum of m + n is from 90 mol% to 100 mol% of an average degree of polymerization of the copolymeric brush arms; and the copolymeric backbone comprises monomeric repeat units of at least two different acrylate monomers of formulae and: wherein each R 1 and R 3 are individually hydrogen, a linear or branched C 1 -C 4 alkyl moiety, or a mixture thereof; each R 2 is individually a covalently-linked copolymeric brush arm, a residual hydrogen, a residual trisubstituted silyl group in which the substitutions are each individually a linear, branched, and/or cyclic C 1 -C 8 alkyl, aryl, alkaryl, or aralkyl moiety, a residual linear, cyclic, or branched C 1 -C 7 acyl moiety, a residual linear or branched C 1 -C 4 hydroxyalkyl moiety, or a residual monovalent counterion; each R 4 is individually a linear, branched, and/or cyclic C 8 -C 30 alkyl, aryl, alkaryl, or aralkyl moiety; and a sum of a + b is from 90 mol% to 100 mol% of an average degree of polymerization of the copolymeric backbone.
A guide wire joint, comprising a first cover board, a second cover board, a connecting part for connecting the first cover board and the second cover board, and a connecting piece for connecting the guide wire joint to a medical device; wherein the one side of the first cover board and the one side of the second cover board are connected together via the connecting part, while the other side of the first cover board and the other side of the second cover board are not connected, so that when the other side of the first cover board and the other side of the second cover board are in a contact state a closing of the guide wire joint is realized, and wherein when the other side of the first cover board and the other side of the second cover board are in a separated state, an opening of the guide wire joint is realized; wherein, when in the contact state, a guide wire passage is formed between the first cover board and the connecting piece so that a guide wire can be allowed to enter the guide wire joint through the guide wire passage and penetrate into a guide wire cavity of the medical device, and wherein when in the separated state, said other side of the first cover board and said other side of the second cover board are separated to form an opening, such that the guide wire may be detached from the guide wire joint from the opening in a state where the medical device is not separated from the guide wire joint.
A voltage converter comprising: a transformer comprising a primary winding, a first secondary winding, and a second secondary winding; a first transistor connected between a first terminal of the first secondary winding and electrical ground, the first transistor comprising a first drain; a second transistor connected between a second terminal of the second secondary winding and electrical ground, the second transistor comprising a second drain; a capacitor that is connectable along a current path to the transformer via at least one of the first transistor or the second transistor; a control system configured to detect a first voltage at the first drain and a second voltage at the second drain, and to generate pulse-width modulated control signals based at least on the first voltage and the second voltage, the pulse-width modulated control signals configured to control operation of the first transistor and the second transistor to produce voltage at the primary winding based on a voltage across the capacitor; and an output terminal configured to be connected to a load; the voltage converter being characterised by: an inductor connected in series with the capacitor and the output terminal and connected at a center tap of the transformer between the first secondary winding and the second secondary winding; wherein the pulse-width modulated control signals are based also on current through the inductor to the transformer. a transformer comprising a primary winding, a first secondary winding, and a second secondary winding; a first transistor connected between a first terminal of the first secondary winding and electrical ground, the first transistor comprising a first drain; a second transistor connected between a second terminal of the second secondary winding and electrical ground, the second transistor comprising a second drain; a capacitor that is connectable along a current path to the transformer via at least one of the first transistor or the second transistor; a control system configured to detect a first voltage at the first drain and a second voltage at the second drain, and to generate pulse-width modulated control signals based at least on the first voltage and the second voltage, the pulse-width modulated control signals configured to control operation of the first transistor and the second transistor to produce voltage at the primary winding based on a voltage across the capacitor; and an output terminal configured to be connected to a load; the voltage converter being characterised by: an inductor connected in series with the capacitor and the output terminal and connected at a center tap of the transformer between the first secondary winding and the second secondary winding; wherein the pulse-width modulated control signals are based also on current through the inductor to the transformer. an inductor connected in series with the capacitor and the output terminal and connected at a center tap of the transformer between the first secondary winding and the second secondary winding; wherein the pulse-width modulated control signals are based also on current through the inductor to the transformer.
A drive device for a hybrid vehicle comprising: a rotational electric machine (MG1, MG2); a power transmitting mechanism (PSD, RG, DEF) combining a power generated by said rotational electric machine with a power generated by an internal combustion engine and providing the combined powers to a drive shaft; a power control unit controlling said rotational electric machine; a casing (CS0, 102) having a first accommodating portion employed for accommodating said power control unit, and a second accommodating unit employed for accommodating at least said rotational electric machine and formed integrally with said first accommodating portion; and a cover member (CV, 150) fixed to said casing and covering an opening in said first accommodating portion, wherein said power control unit includes an inverter (14, 22) arranged corresponding to said rotational electric machine (MG1, MG2), and a voltage converter configured to generate an input voltage of said inverter, characterized in that said voltage converter includes: a reactor arranged on one side of said rotation axis of said rotational electric machine, and a capacitor arranged on the other side of said rotation axis of said rotational electric machine. a rotational electric machine (MG1, MG2); a power transmitting mechanism (PSD, RG, DEF) combining a power generated by said rotational electric machine with a power generated by an internal combustion engine and providing the combined powers to a drive shaft; a power control unit controlling said rotational electric machine; a casing (CS0, 102) having a first accommodating portion employed for accommodating said power control unit, and a second accommodating unit employed for accommodating at least said rotational electric machine and formed integrally with said first accommodating portion; and a cover member (CV, 150) fixed to said casing and covering an opening in said first accommodating portion, wherein said power control unit includes an inverter (14, 22) arranged corresponding to said rotational electric machine (MG1, MG2), and a voltage converter configured to generate an input voltage of said inverter, characterized in that said voltage converter includes: a reactor arranged on one side of said rotation axis of said rotational electric machine, and a capacitor arranged on the other side of said rotation axis of said rotational electric machine. a reactor arranged on one side of said rotation axis of said rotational electric machine, and a capacitor arranged on the other side of said rotation axis of said rotational electric machine.
A method in a wireless device, comprising: receiving a discovery burst from a network node, the discovery burst comprising multiple signals within at least one subframe, each of the multiple signals having one or more associated measurement functions, wherein the discovery burst comprises N subframes occurring with a periodicity of once every M subframes, where N is greater than or equal to 1, wherein the multiple signals comprise one or more of a cell-specific reference signal and a channel state information reference symbol, and the multiple signals are received in subframes other than subframes 0 and 5; and performing at least one radio measurement based at least in part on a particular one of the signals of the discovery burst, the performed at least one radio measurement corresponding to a measurement function associated with the particular signal of the discovery burst. receiving a discovery burst from a network node, the discovery burst comprising multiple signals within at least one subframe, each of the multiple signals having one or more associated measurement functions, wherein the discovery burst comprises N subframes occurring with a periodicity of once every M subframes, where N is greater than or equal to 1, wherein the multiple signals comprise one or more of a cell-specific reference signal and a channel state information reference symbol, and the multiple signals are received in subframes other than subframes 0 and 5; and performing at least one radio measurement based at least in part on a particular one of the signals of the discovery burst, the performed at least one radio measurement corresponding to a measurement function associated with the particular signal of the discovery burst.
A method for evaluating the electrical energy produced by an electric arc in a photovoltaic installation, comprising the following steps: D) Measuring an electric current signal produced by the installation at a sampling frequency greater than or equal to 50 kHz and, from the measured current signal: ∘ Determining an initial value (lo) of the current before an electric arc appears; ∘ Determining current values (I arcj) during the electric arc; E) Evaluating values of an arc voltage from the current values determined during the arc and from the initial value of the current; F) Integrating, over time, the product of the evaluated arc voltage values and the determined current values, in order to determine the energy of the arc. D) Measuring an electric current signal produced by the installation at a sampling frequency greater than or equal to 50 kHz and, from the measured current signal: ∘ Determining an initial value (lo) of the current before an electric arc appears; ∘ Determining current values (I arcj) during the electric arc; ∘ Determining an initial value (lo) of the current before an electric arc appears; ∘ Determining current values (I arcj) during the electric arc; E) Evaluating values of an arc voltage from the current values determined during the arc and from the initial value of the current; F) Integrating, over time, the product of the evaluated arc voltage values and the determined current values, in order to determine the energy of the arc.
An air conditioner, comprising: a chassis; a ventilation fan that sucks air and blows out the sucked air; a heat exchanger that exchanges heat between the sucked air and a refrigerant in a refrigerating cycle, arranged inside an airflow route formed by the ventilation fan; resin-made components installed to a rear flow side of the heat exchanger; and a coating composition that forms a coating film on surfaces of the resin-made components, that includes silica ultrafine particles and fluororesin particles, wherein the coating film comprises a silica film comprising the silica ultrafine particles and the fluororesin particles partially exposed from a surface of the silica film in dots, and an exposed area of the silica film is greater than an exposed area of the fluororesin particles, the coating composition having a weight ratio of silica ultrafine particle content and fluororesin particle content ranging from 30:70 to 95:5, wherein the resin-made components are formed from polystyrene or polypropylene, and the coating composition comprises a peroxide compound. a chassis; a ventilation fan that sucks air and blows out the sucked air; a heat exchanger that exchanges heat between the sucked air and a refrigerant in a refrigerating cycle, arranged inside an airflow route formed by the ventilation fan; resin-made components installed to a rear flow side of the heat exchanger; and a coating composition that forms a coating film on surfaces of the resin-made components, that includes silica ultrafine particles and fluororesin particles, wherein the coating film comprises a silica film comprising the silica ultrafine particles and the fluororesin particles partially exposed from a surface of the silica film in dots, and an exposed area of the silica film is greater than an exposed area of the fluororesin particles, the coating composition having a weight ratio of silica ultrafine particle content and fluororesin particle content ranging from 30:70 to 95:5, wherein the resin-made components are formed from polystyrene or polypropylene, and the coating composition comprises a peroxide compound.
A working unit of a cultivator comprising: - a bearing element adapted to be fixed to the main frame of the cultivator, - at least one first working section for soil cultivation, - at least one locking element adapted for locking the at least one first working section in a determined position, - at least one second working section for soil cultivation, wherein - the bearing element comprises rails for fixing the at least one first working section, said rails arranged along the bearing element on the opposite sides of said bearing element; - the working unit further comprises a rear bearing element parallel to the bearing element adapted to be fixed to the main frame of the cultivator and equipped with at least one rail for fixing the at least one first working section, said at least one rail arranged along the rear bearing element, and - the at least one first working section is suspended from at least one rail of the bearing element and the at least one rail of the rear bearing element by means of the at least one locking element, characterized in that - at least one of the working sections (5, 9) comprises at least one body (14, 15) and at least one roller (16, 17) for moving it along the rails (4, 7), wherein the at least one roller (16, 17) is fixed to the at least one body (14, 15) and the at least one body (14, 15) is connected to the remaining part of the at least one of the working sections (5, 9). - a bearing element adapted to be fixed to the main frame of the cultivator, - at least one first working section for soil cultivation, - at least one locking element adapted for locking the at least one first working section in a determined position, - at least one second working section for soil cultivation, wherein - the bearing element comprises rails for fixing the at least one first working section, said rails arranged along the bearing element on the opposite sides of said bearing element; - the working unit further comprises a rear bearing element parallel to the bearing element adapted to be fixed to the main frame of the cultivator and equipped with at least one rail for fixing the at least one first working section, said at least one rail arranged along the rear bearing element, and - the at least one first working section is suspended from at least one rail of the bearing element and the at least one rail of the rear bearing element by means of the at least one locking element, characterized in that - at least one of the working sections (5, 9) comprises at least one body (14, 15) and at least one roller (16, 17) for moving it along the rails (4, 7), wherein the at least one roller (16, 17) is fixed to the at least one body (14, 15) and the at least one body (14, 15) is connected to the remaining part of the at least one of the working sections (5, 9).
A reticle on which a pattern that serves as an indicator when an observer visually recognizes an object under observation is formed and which is suitable for being disposed in an observation optical path between an objective lens and an ocular lens in a position of an image formed by the objective lens, wherein the pattern includes a plurality of protruding sections (33a, 33b) and/or a plurality of recessed sections (34a, 34b) provided on at least one surface of a plate-shaped optical member, the protruding sections (33a, 33b) are formed of a plurality of structural elements each having an inclining surface inclining with respect to an optical axis of the observation optical path and/or each of the recessed sections (34a, 34b) is formed of a plurality of structural elements each having two inclining surfaces, each inclining surface inclining with respect to an optical axis of the observation optical path, and an inclination angle (α/2) of the inclining surfaces with respect to the optical axis is set at an angle that causes light which is directly incident on the inclining surfaces via the objective lens to be deflected to exit out of the observation optical path through the inclining surfaces. wherein the pattern includes a plurality of protruding sections (33a, 33b) and/or a plurality of recessed sections (34a, 34b) provided on at least one surface of a plate-shaped optical member, the protruding sections (33a, 33b) are formed of a plurality of structural elements each having an inclining surface inclining with respect to an optical axis of the observation optical path and/or each of the recessed sections (34a, 34b) is formed of a plurality of structural elements each having two inclining surfaces, each inclining surface inclining with respect to an optical axis of the observation optical path, and an inclination angle (α/2) of the inclining surfaces with respect to the optical axis is set at an angle that causes light which is directly incident on the inclining surfaces via the objective lens to be deflected to exit out of the observation optical path through the inclining surfaces.