mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a composite phthalocyanine microparticle comprising at least alpha-type copper phthalocyanine and titanyl phthalocyanine and/or cobalt phthalocyanine and having an aspect ratio in a range of 1.1 to 2.5 (both inclusive) and a particle diameter in a range of 5 to 50 nm (both inclusive), the method comprising: step in which as raw materials at least a copper phthalocyanine and a titanyl phthalocyanine and/or a cobalt phthalocyanine are dissolved in a first solvent to obtain a dissolved solution; step in which the dissolved solution obtained in the step is mixed with a second solvent capable of being a poor solvent to the raw materials to effect separation of a composite phthalocyanine; and step in which an organic solvent is made to act on the composite phthalocyanine obtained in the step, wherein the mixing weight ratio of the copper phthalocyanine to titanyl phthalocyanine and/or cobalt phthalocyanine in the step is in a range of 1 or more to less than 20, and wherein at least the step is executed by using a forced thin film type micro reactor in which at least two fluids to be processed are made to react with each other, and of the fluids to be processed, at least one fluid to be processed is the dissolved solution, and the other fluid to be processed is the second solvent. step in which as raw materials at least a copper phthalocyanine and a titanyl phthalocyanine and/or a cobalt phthalocyanine are dissolved in a first solvent to obtain a dissolved solution; step in which the dissolved solution obtained in the step is mixed with a second solvent capable of being a poor solvent to the raw materials to effect separation of a composite phthalocyanine; and step in which an organic solvent is made to act on the composite phthalocyanine obtained in the step, wherein the mixing weight ratio of the copper phthalocyanine to titanyl phthalocyanine and/or cobalt phthalocyanine in the step is in a range of 1 or more to less than 20, and wherein at least the step is executed by using a forced thin film type micro reactor in which at least two fluids to be processed are made to react with each other, and of the fluids to be processed, at least one fluid to be processed is the dissolved solution, and the other fluid to be processed is the second solvent.
A method of operating a terminal device in a wireless telecommunications system comprising a base station arranged to communicate with a plurality of terminal devices (1506, 1508) using frequencies spanning a system frequency bandwidth, wherein the terminal device comprises a tuneable transceiver configured to receive downlink transmissions from the base station using a restricted frequency bandwidth which is smaller than and within the system frequency bandwidth, wherein the method comprises: sequentially tuning (T7, T12, T17) the transceiver to different frequency locations for the restricted frequency bandwidth within the system frequency bandwidth and making measurements (T3, T8, T13, T18) of channel conditions at the different frequency locations to provide a corresponding plurality of measurements of channel conditions; and characterised by communicating information (T4, T9, T14, T19) derived from the plurality of measurements of channel conditions to the base station in a plurality of channel condition reports corresponding with respective ones of the plurality of measurements of channel conditions, and receiving (T6, T11, T16, T21) a plurality of resource allocation messages from the base station indicating uplink transmission resources to be used for sending respective ones of the channel condition reports, wherein different ones of the plurality of resource allocation messages are received with the transceiver tuned to different frequency locations for the restricted frequency bandwidth within the system frequency bandwidth, wherein the steps of making a measurement of channel conditions and sending a channel condition report for each frequency location are performed before tuning the transceiver to a next frequency location. sequentially tuning (T7, T12, T17) the transceiver to different frequency locations for the restricted frequency bandwidth within the system frequency bandwidth and making measurements (T3, T8, T13, T18) of channel conditions at the different frequency locations to provide a corresponding plurality of measurements of channel conditions; and characterised by communicating information (T4, T9, T14, T19) derived from the plurality of measurements of channel conditions to the base station in a plurality of channel condition reports corresponding with respective ones of the plurality of measurements of channel conditions, and receiving (T6, T11, T16, T21) a plurality of resource allocation messages from the base station indicating uplink transmission resources to be used for sending respective ones of the channel condition reports, wherein different ones of the plurality of resource allocation messages are received with the transceiver tuned to different frequency locations for the restricted frequency bandwidth within the system frequency bandwidth, wherein the steps of making a measurement of channel conditions and sending a channel condition report for each frequency location are performed before tuning the transceiver to a next frequency location.
A method for triggering a plurality of emergency measures associated with an aircraft emergency, wherein the method comprises determining only a single risk level for an aircraft emergency by evaluating a plurality of flight parameters and/or aircraft parameters using a predefined logic, defining for each emergency measure of the plurality of emergency measures a threshold, wherein for at least one emergency measure of the plurality of emergency measures a different threshold is defined than for at least one other emergency measure of the plurality of emergency measures, and only triggering each emergency measure of the plurality of emergency measures if said determined single risk level exceeds the threshold defined for said emergency measure. defining for each emergency measure of the plurality of emergency measures a threshold, wherein for at least one emergency measure of the plurality of emergency measures a different threshold is defined than for at least one other emergency measure of the plurality of emergency measures, and only triggering each emergency measure of the plurality of emergency measures if said determined single risk level exceeds the threshold defined for said emergency measure.
An energy guiding chain for guiding lines like cables, hoses or the like comprising a plurality of hingedly interconnected chain links of which at least a portion has mutually parallel side plates (11, 12) and transverse limbs connecting same, wherein adjacent chain links are pivotable relative to each other about a respective pivot axis extending transversely relative to the longitudinal direction of the energy guiding chain, wherein the plurality of the guided lines extends in the longitudinal direction within the chain links while at least one further line is arranged outside the chain links and is supported by holding elements (46, 81) provided on the energy guiding chain, characterised in that, at at least one side of the energy guiding chain on the outside surfaces of at least some of the side plates in the region between two respective pivot axes, receiving means (31, 75, 95) are provided in which the holding elements (46, 81) for the at least one further line can be inserted along a plane extending parallel to the side plate, wherein the receiving means (31, 75, 95) are provided centrally, with respect to a direction which runs transversely to the longitudinal direction and transversely to the pivot axes, on the respective side plate.
A method for processing frozen slices of tissue of biospecimens mounted on or adhered to glass slides to form a frozen section, and arranged on a carrier comprising a frame having a holding portion for holding the tissue slices or frozen sections, the tissue slices having a thickness of between 1μm and 50 μm, the method comprising the following steps: a.) immersing the frozen tissue slices in a fixative, b.) staining the tissue slice, c.) dehydrating the tissue slice, and d.) clearing the tissue slice wherein steps a.) to d.) are performed by automatically transferring the frozen sections on the carrier between and into and out of at least a container holding the fixative, at least one container (C3, C5) holding a staining solution, a container (C6, C7) holding a dehydrating solution, and a container holding a clearing solution, wherein the transfer and the time duration during which the tissue slices are in said containers (C, C1-C8) is controlled by a control unit controlling an actuator holding the tissue slices, and wherein the carrier comprises a magnetic stirring means being rotary attached to the frame and which is driven by an external magnetic drive. a.) immersing the frozen tissue slices in a fixative, b.) staining the tissue slice, c.) dehydrating the tissue slice, and d.) clearing the tissue slice
A control system for limiting a power turbine torque of a gas turbine engine, comprising: an engine control module configured to output an effector command signal to a gas generator (102; 202) of the gas turbine engine; a power turbine governor module configured to output to the engine control module a power turbine torque request signal; and a power turbine torque limiter module, characterized in that the power turbine torque limiter module is configured to output to the power turbine governor module a power turbine speed rate signal to limit a power turbine speed overshoot of the gas turbine engine, wherein the power turbine speed rate signal includes a signal difference, defined as a difference between the real-time power turbine speed signal and a desired power turbine speed reference signal, multiplied by a power turbine torque rate limit value and divided by a power turbine load signal received from a load system (130; 230) in communication with the gas generator (102; 202) to generate a squared power turbine speed rate signal. an engine control module configured to output an effector command signal to a gas generator (102; 202) of the gas turbine engine; a power turbine governor module configured to output to the engine control module a power turbine torque request signal; and a power turbine torque limiter module, characterized in that the power turbine torque limiter module is configured to output to the power turbine governor module a power turbine speed rate signal to limit a power turbine speed overshoot of the gas turbine engine, wherein the power turbine speed rate signal includes a signal difference, defined as a difference between the real-time power turbine speed signal and a desired power turbine speed reference signal, multiplied by a power turbine torque rate limit value and divided by a power turbine load signal received from a load system (130; 230) in communication with the gas generator (102; 202) to generate a squared power turbine speed rate signal.
A method for scheduling data packets, the method being performed by one or more processors and characterised by: receiving one or more congestion indications for a plurality of connections (420, 430) corresponding to a communication link; estimating a link rate of the communication link using the one or more congestion indications and classification information for the data packets (436A, 436B); and scheduling the data packets for transmission via the plurality of connections using the estimated link rate and the classification information. receiving one or more congestion indications for a plurality of connections (420, 430) corresponding to a communication link; estimating a link rate of the communication link using the one or more congestion indications and classification information for the data packets (436A, 436B); and scheduling the data packets for transmission via the plurality of connections using the estimated link rate and the classification information.
A method for mirroring data between a plurality of sites (310, 312), comprising: maintaining, at a first site of the plurality of sites (310, 312), a first record that identifies which transactions that have been executed at the first site have had their redo information replicated to the other sites of the plurality of sites (310,312); maintaining, at the first site, a second record that identifies which transactions that have been executed at the first site have had their redo information logged to persistent storage at the first site, comprising a redo log file in which redo information for transactions that have been executed at the first site is stored sequentially in the order in which the transactions commit; determining a priority value associated with a transaction that is to be performed at the first site, wherein the transaction specifies a modification to a data block; if the priority value is a first value in a set of possible values, then committing the transaction only after the first record indicates that redo information associated with the transaction and with all other transactions that have committed before the transaction has been replicated to the other sites of the plurality of sites (310, 312); and if the priority value is a second value in said set of possible values, then committing the transaction even though the first record does not indicate that redo information associated with the transaction has been replicated to the other sites of the plurality of sites (310, 312). maintaining, at a first site of the plurality of sites (310, 312), a first record that identifies which transactions that have been executed at the first site have had their redo information replicated to the other sites of the plurality of sites (310,312); maintaining, at the first site, a second record that identifies which transactions that have been executed at the first site have had their redo information logged to persistent storage at the first site, comprising a redo log file in which redo information for transactions that have been executed at the first site is stored sequentially in the order in which the transactions commit; determining a priority value associated with a transaction that is to be performed at the first site, wherein the transaction specifies a modification to a data block; if the priority value is a first value in a set of possible values, then committing the transaction only after the first record indicates that redo information associated with the transaction and with all other transactions that have committed before the transaction has been replicated to the other sites of the plurality of sites (310, 312); and if the priority value is a second value in said set of possible values, then committing the transaction even though the first record does not indicate that redo information associated with the transaction has been replicated to the other sites of the plurality of sites (310, 312).
A mouthpiece for cleaning teeth, comprising: an arcuate-shaped base assembly having two side portions (14,16) and an intermediate central portion wherein forward ends of the two side portions (14,16) are connected rotatably to opposing ends of the central portion, such that rear ends (25,27) of the side portions (14,16) are moveable outwardly and inwardly, providing an adjustable width for the mouthpiece; a first flexible screw thread spindle member connected at the free ends (33,35) thereof to the rear ends (25,27) of the side portions (14,16) of the base assembly so as to maintain the spindle in an arcuate shape similar to the shape of the base assembly; two side carriages (40,42) mounted on opposing sides of the spindle member, the side carriages (40,42) having teeth cleaning members mounted thereon; and a drive assembly for driving the two side carriages (40,42) along the opposing sides of the spindle, cleaning the teeth. an arcuate-shaped base assembly having two side portions (14,16) and an intermediate central portion wherein forward ends of the two side portions (14,16) are connected rotatably to opposing ends of the central portion, such that rear ends (25,27) of the side portions (14,16) are moveable outwardly and inwardly, providing an adjustable width for the mouthpiece; a first flexible screw thread spindle member connected at the free ends (33,35) thereof to the rear ends (25,27) of the side portions (14,16) of the base assembly so as to maintain the spindle in an arcuate shape similar to the shape of the base assembly; two side carriages (40,42) mounted on opposing sides of the spindle member, the side carriages (40,42) having teeth cleaning members mounted thereon; and a drive assembly for driving the two side carriages (40,42) along the opposing sides of the spindle, cleaning the teeth.
A measurement gap configuration method in an inter-frequency measurement for positioning, comprising: determining (S11; 301), by the terminal, information according to positioning reference signal, PRS, information of a measured cell for which reference signal difference, RSTD measurement, is to be performed by the terminal, the determined information is information used to indicate that the terminal needs to perform the RSTD inter-frequency measurement and to be used for determining a gap offset, wherein the determined information includes a starting point of a positioning occasion and a length of the positioning occasion, or the information includes the PRS information of an inter-frequency cell engaged in positioning, wherein the PRS information of the measured cell includes an index of positioning reference signal and a length of positioning occasion; sending (S12; 302), by a terminal, the determined information to a base station of a serving cell; and obtaining, by receiving, by the terminal, gap configuration information sent by the base station, wherein the gap configuration information comprises the gap offset and a gap pattern. determining (S11; 301), by the terminal, information according to positioning reference signal, PRS, information of a measured cell for which reference signal difference, RSTD measurement, is to be performed by the terminal, the determined information is information used to indicate that the terminal needs to perform the RSTD inter-frequency measurement and to be used for determining a gap offset, wherein the determined information includes a starting point of a positioning occasion and a length of the positioning occasion, or the information includes the PRS information of an inter-frequency cell engaged in positioning, wherein the PRS information of the measured cell includes an index of positioning reference signal and a length of positioning occasion; sending (S12; 302), by a terminal, the determined information to a base station of a serving cell; and obtaining, by receiving, by the terminal, gap configuration information sent by the base station, wherein the gap configuration information comprises the gap offset and a gap pattern.
A protective helmet comprising: a protective assembly to protect a wearer's head; a first connector to physically connect an electrical power source to the helmet; a first contact to receive electrical power from the power source; a flexible printed circuit board forming a power bus, the first contact being electrically connected to the flexible printed circuit board to provide electrical power to the flexible printed circuit board when the electrical power source is connected to the first contact; one or more component contacts (138, 148) electrically connected to the flexible printed circuit board, each of the component contacts (138, 148) being configured to deliver electrical power to an electronic component when the electronic component is connected to the component contact (138, 148), characterized in that the flexible printed circuit board extends along a rim portion of the helmet. a protective assembly to protect a wearer's head; a first connector to physically connect an electrical power source to the helmet; a first contact to receive electrical power from the power source; a flexible printed circuit board forming a power bus, the first contact being electrically connected to the flexible printed circuit board to provide electrical power to the flexible printed circuit board when the electrical power source is connected to the first contact; one or more component contacts (138, 148) electrically connected to the flexible printed circuit board, each of the component contacts (138, 148) being configured to deliver electrical power to an electronic component when the electronic component is connected to the component contact (138, 148), characterized in that the flexible printed circuit board extends along a rim portion of the helmet.
Catalytic system for electrochemical reduction of CO 2 comprising: a. a bimetallic zinc-copper cathode with an atomic percentage of zinc in the range of 28% to 97%, the bimetallic cathode further optionally further comprising metallic and/or non-metallic additives in atomic percentages equal or less than 1%, wherein the metallic and/or non-metallic additives are selected from Sn, Fe, Pb, their oxides, copper oxides, zinc oxides, Si, C and their mixtures, and where copper and zinc are present in the cathode in the form of solid solution, alloy or particles, including nanoparticles supported on an electric conducting material, wherein the nanoparticles are nanoparticles of Cu 5 Zn 8, CuZn 2 and their mixtures with nanoparticles of pure copper and/or nanoparticles of pure zinc, b. a hydrophilic ionic liquid-based electrolyte containing water and dissolved CO 2 forming a single phase, in which the molar fraction of ionic liquid lies in the range 0.1-0.6, wherein said ionic liquid consists of cations selected from imidazolium, pyridinium, pyrrolidinium, phosphonium, ammonium, sulfonium, cholines and acetyl cholines, and the anions that are present combined with these cations are selected from tetrafluoroborate, chloride, bromide, iodine, methanesulfonate, acetate, formiate, trifluoroacetate and triflate, the ionic liquid-based electrolyte optionally further comprising an organic additive, and the ionic liquid-based electrolyte being coupled to said bimetallic zinc-copper cathode, and wherein the catalytic system is configured to produce syngas with a cathodic overpotential in the range of 0.1 V - 0.7 V at temperatures between room temperature and 100 °C, and pressures between atmospheric pressure and 100 bar. a. a bimetallic zinc-copper cathode with an atomic percentage of zinc in the range of 28% to 97%, the bimetallic cathode further optionally further comprising metallic and/or non-metallic additives in atomic percentages equal or less than 1%, wherein the metallic and/or non-metallic additives are selected from Sn, Fe, Pb, their oxides, copper oxides, zinc oxides, Si, C and their mixtures, and where copper and zinc are present in the cathode in the form of solid solution, alloy or particles, including nanoparticles supported on an electric conducting material, wherein the nanoparticles are nanoparticles of Cu 5 Zn 8, CuZn 2 and their mixtures with nanoparticles of pure copper and/or nanoparticles of pure zinc, b. a hydrophilic ionic liquid-based electrolyte containing water and dissolved CO 2 forming a single phase, in which the molar fraction of ionic liquid lies in the range 0.1-0.6, wherein said ionic liquid consists of cations selected from imidazolium, pyridinium, pyrrolidinium, phosphonium, ammonium, sulfonium, cholines and acetyl cholines, and the anions that are present combined with these cations are selected from tetrafluoroborate, chloride, bromide, iodine, methanesulfonate, acetate, formiate, trifluoroacetate and triflate, the ionic liquid-based electrolyte optionally further comprising an organic additive, and the ionic liquid-based electrolyte being coupled to said bimetallic zinc-copper cathode, and