mhurhangee/ep-ind-claims huggingface dataset:
A method for providing log entries of a system log, the method comprising: - Initiating, at a readout time, a readout process using a first and a second readout information (201, 202) in parallel to read the log entries, wherein the readout information (201, 202) is a pointer comprising an information with a reference to a particular log entry, - Reading the log entries logged before the readout time by using the first readout information, - Reading the log entries logged after the readout time by using the second readout information. - Initiating, at a readout time, a readout process using a first and a second readout information (201, 202) in parallel to read the log entries, wherein the readout information (201, 202) is a pointer comprising an information with a reference to a particular log entry, - Reading the log entries logged before the readout time by using the first readout information, - Reading the log entries logged after the readout time by using the second readout information.
Exhaust-gas aftertreatment system for the exhaust-gas aftertreatment of an internal combustion engine, wherein an outlet of the internal combustion engine is capable of being connected to an exhaust-gas system, wherein, in the exhaust-gas system, a first three-way catalytic converter and, downstream of the first three-way catalytic converter, an electrically heatable three-way catalytic converter are arranged in the direction of flow of an exhaust gas through the exhaust-gas system, wherein three lambda probes (38, 40, 42) are arranged in the exhaust-gas system, wherein, in the exhaust-gas flow direction of an exhaust gas of the internal combustion engine through the exhaust-gas system, a first lambda probe is arranged upstream of the first three-way catalytic converter and a second lambda probe is arranged downstream of the first three-way catalytic converter and upstream of the electrically heatable catalytic converter, and wherein, in the exhaust-gas system, a temperature sensor for measuring an exhaust-gas temperature is arranged, characterized in that, in the exhaust-gas system, a third lambda probe is arranged downstream of the second lambda probe, wherein the lambda probes (38, 40, 42) and the temperature sensor are connected via signal lines to an engine control unit, wherein the engine control unit is designed to reduce or extend the control path of the lambda control in dependence on the exhaust-gas temperature, wherein the control path of the lambda control is extended to the third lambda probe as soon as the temperature reaches a light-off temperature of a catalytic converter (30, 56) arranged upstream of the third lambda probe that is necessary for the conversion, and the controlled system is reduced again to the second lambda probe when the temperature falls below the light-off temperature of the catalytic converter (30, 56) arranged upstream of the third lambda probe that is necessary for the conversion.
Tread for a tyre, this tread having a tread surface intended to come into contact with a road surface and comprising at least one groove of width W and of depth P delimited by two walls (20, 30) facing one another, these walls being oined together by a groove bottom, at least one groove comprising at least one flexible device for at least partially closing this groove as it passes through the contact patch, each flexible device comprising at least one blade (4, 4') of a suitable thickness that allows it to flex under the effect of a circulation of liquid, this at least one blade (4, 4') being borne by a wall delimiting the groove, each blade of thickness E being bounded by a bottom wall facing the bottom of the groove, an end wall facing the other wall of the groove and a contact wall intended to come into contact with the road surface and lateral walls (43, 44) spaced apart by a distance equal to the thickness E of the blade, this tread being characterized in that the bottom wall of the blade comprises a first part referred to as connection part and a second part extending the first part up to the end part of the blade, the connection part being offset towards the outside of the tread with respect to the second part of the bottom wall of the blade so as to form a notch.
A method of blending butane into a refined petroleum product supply, wherein the refined petroleum product is suitable to flow through a petroleum pipeline, wherein the refined petroleum product supply is also mixed with a fixed ratio of ethanol after or at the same time as blending butane into said refined petroleum product supply, in an amount that does not cause the refined petroleum product/ethanol mix to pass one or more fixed volatility limits selected from vapor pressure (measured according to ASTM standard method D 5191-07), vapor liquid ratio (determined according to ASTM standard method D 5191-07), T and T (measured according to ASTM standard method D 86-07b), wherein the refined petroleum product supply varies over time in terms of content and volatility potential, comprising: a. providing (i) a supply of the refined petroleum product, (ii) a first ethanol supply, and (iii) a supply of butane; b. analyzing the volatility of a sample formed by mixing the refined petroleum product and ethanol from the first ethanol supply; c. calculating from the volatility a ratio of butane that can be blended into the sample without causing the sample to pass the one or more fixed volatility limits; and d. blending butane from the butane supply with the refined petroleum product from the refined petroleum product supply at or below the ratio calculated in step (c). a. providing (i) a supply of the refined petroleum product, (ii) a first ethanol supply, and (iii) a supply of butane; b. analyzing the volatility of a sample formed by mixing the refined petroleum product and ethanol from the first ethanol supply; c. calculating from the volatility a ratio of butane that can be blended into the sample without causing the sample to pass the one or more fixed volatility limits; and d. blending butane from the butane supply with the refined petroleum product from the refined petroleum product supply at or below the ratio calculated in step (c).
Guide needle arrangement for a Jacquard guide bar comprising a carrier and a plurality of guide needle units which can be individually removed from the carrier, each guide needle unit comprising at least one offset drive and a head, the carrier comprising, for each guide needle unit, a receptacle having a first portion and a second portion, and the head comprising a first orientation lug at one end when viewed in the longitudinal direction of the guide needle unit, and a second orientation lug at the other end, which lugs are respectively inserted in the portions (13, 14) of the receptacle, characterised in that the orientation lugs (10, 11) are at different distances from a raised surface of the head on the carrier.
Method for selective dissolution of a first solid compound present in a mixture with respect to at least a second solid compound different from the first solid compound, and also present in the mixture, wherein the method comprises at least one step of contacting the mixture with a dissolution solution, in which the first solid compound is dissolved by generating at least one gaseous compound and the second solid compound is dissolved without generating any gaseous compound, characterized in that the dissolution solution comprises at least one non-ionic surfactant and in that said at least one non-ionic surfactant is added to said dissolution solution before bringing said solution into contact with said mixture to be dissolved. wherein the method comprises at least one step of contacting the mixture with a dissolution solution, in which the first solid compound is dissolved by generating at least one gaseous compound and the second solid compound is dissolved without generating any gaseous compound, characterized in that the dissolution solution comprises at least one non-ionic surfactant and in that said at least one non-ionic surfactant is added to said dissolution solution before bringing said solution into contact with said mixture to be dissolved.
A method for treating water with an apparatus comprising an ozone treatment module, a degassing module and a filtration module, the ozone treatment module comprising a contacting chamber,the method comprising: a) injecting gases into the water in the ozone treatment module, the gases comprising ozone gas; b) contacting the gases with the water in the contacting chamber to cause a dissolution of at least a portion of the gases into the water; c) removing substantially all undissolved gases from the water in the degassing module such that the water becomes substantially saturated with dissolved gases wherein essentially all the undissolved gases are removed; d) passing the gas-saturated water through the filtration module, the filtration module comprising at least one membrane filter, the passage of the gas-saturated water through the at least one membrane filter causing a pressure-drop, the pressure-drop causing the formation of micro-bubbles, the formation of micro-bubbles producing an efficient self-cleaning mechanism for the membrane. a) injecting gases into the water in the ozone treatment module, the gases comprising ozone gas; b) contacting the gases with the water in the contacting chamber to cause a dissolution of at least a portion of the gases into the water; c) removing substantially all undissolved gases from the water in the degassing module such that the water becomes substantially saturated with dissolved gases wherein essentially all the undissolved gases are removed; d) passing the gas-saturated water through the filtration module, the filtration module comprising at least one membrane filter, the passage of the gas-saturated water through the at least one membrane filter causing a pressure-drop, the pressure-drop causing the formation of micro-bubbles, the formation of micro-bubbles producing an efficient self-cleaning mechanism for the membrane.
Device for actuating a fire-extinguishing system by means of a sprinkler which is arranged between the pipeline for the extinguishing agent and the sprinkler on the sprinkler or a downpipe which is connected to the sprinkler and a support pipe, comprising a multi-arm toggle joint which acts between a loading axis of an actuation element of the sprinkler and a sealing element which is arranged at an angle of from 80 to 120 degrees relative thereto, wherein the multi-arm toggle joint comprises articulated connections (6.2) which are constructed as a point-like connection and which each act centrally against the support locations thereof, and wherein the sealing element, which closes the pipeline for the extinguishing agent in a gas-tight manner, is constructed as a valve disc against which the multi-arm toggle joint acts.
A method of making a molecular sieve of the MCM-22 family, which method comprises: a. providing a mixture comprising at least one source of ions of tetravalent element, at least one source of alkali metal hydroxide, at least one directing-agent, water, and optionally at least one source of ions of trivalent element, said mixture having the following mole composition: Y:X 2 = 10 to infinity H 2 O:Si = 1 to 20 OH -:Si = 0.001 to 2 M +:Si = 0.001 to 2 R:Si = 0.001 to 0.34 wherein Y is a tetravalent element, X is a trivalent element, M is an alkali metal and R is a directing agent; b. treating the mixture at crystallization conditions for less than 72 hours to form a treated mixture comprising said molecular sieve, wherein the crystallization conditions comprise a temperature in the range of from 160°C to 250°C; and c. recovering the molecular sieve. a. providing a mixture comprising at least one source of ions of tetravalent element, at least one source of alkali metal hydroxide, at least one directing-agent, water, and optionally at least one source of ions of trivalent element, said mixture having the following mole composition: Y:X 2 = 10 to infinity H 2 O:Si = 1 to 20 OH -:Si = 0.001 to 2 M +:Si = 0.001 to 2 R:Si = 0.001 to 0.34 wherein Y is a tetravalent element, X is a trivalent element, M is an alkali metal and R is a directing agent; b. treating the mixture at crystallization conditions for less than 72 hours to form a treated mixture comprising said molecular sieve, wherein the crystallization conditions comprise a temperature in the range of from 160°C to 250°C; and c. recovering the molecular sieve.
A method of operating a network node in a communication network to configure a terminal device for uplink multicarrier operation for transmissions from the terminal device to a radio access node in the communication network, wherein the communication network is a Universal Mobile Telecommunications System, UMTS, communication network and the uplink multicarrier operation is dual-carrier high speed uplink packet access, DC-HSUPA, or dual-band dual-carrier high speed uplink packet access, DB-DC-HSUPA, the method comprising: initiating the sending of a message to the terminal device to configure the terminal device to operate with a first uplink carrier having a first transmission time interval, TTI, and a second uplink carrier having a second TTI, wherein the message configures the terminal device with a single transport channel for the first uplink carrier and the second uplink carrier, wherein the single transport channel has the first TTI and the second TTI, wherein the message comprises an "Uplink secondary cell info FDD" information element, IE, that indicates parameters that are specific to the TTI of the second uplink carrier.
A method for controlling a multiphase electric motor system comprising an inverter circuit coupled to a multiphase electric motor having 2N+1 phases, where N is a positive integer larger than 0, said method comprising: modulating a plurality of carrier signals (303, 403) with a plurality of modulation signals in order to generate a multiphase motor supply signal comprising a modulated phase signal for each of the 2 N+1 phases, characterised by defining a set of at least 2(2N+1) time windows in each period of the multiphase motor supply signal; in each time window, modifying a selected group of modulated phase signals by adding a time offset to the carrier signal used to generate the selected group of modulated signals, thereby generating a shifted multiphase motor supply signal, wherein said selected group of modulated phase signals comprises N or N+1 modulated phase signals, and wherein said selected group includes different modulated phase signals in at least two different time windows in said set of time windows; and supplying the shifted multiphase motor supply signal to the multiphase electric motor. modulating a plurality of carrier signals (303, 403) with a plurality of modulation signals in order to generate a multiphase motor supply signal comprising a modulated phase signal for each of the 2 N+1 phases, characterised by defining a set of at least 2(2N+1) time windows in each period of the multiphase motor supply signal; in each time window, modifying a selected group of modulated phase signals by adding a time offset to the carrier signal used to generate the selected group of modulated signals, thereby generating a shifted multiphase motor supply signal, wherein said selected group of modulated phase signals comprises N or N+1 modulated phase signals, and wherein said selected group includes different modulated phase signals in at least two different time windows in said set of time windows; and wherein said selected group of modulated phase signals comprises N or N+1 modulated phase signals, and wherein said selected group includes different modulated phase signals in at least two different time windows in said set of time windows; and supplying the shifted multiphase motor supply signal to the multiphase electric motor.
A method for recording and playing back an online conference, the method comprising the steps of: establishing, by a conferencing system, an audio conference between a plurality of participants accessing the conferencing system via a communication network; presenting, by the conferencing system, the audio conference and a conference interface (4100, 4400) displaying a participant object identifying each of the participants in the audio conference; synchronously recording, by a client device, the audio conference with content presented in the conference interface (4100, 4400); storing, by the client device, the synchronized audio conference and content; and playing back, by the client device, the synchronized audio conference and content, wherein the step of synchronously recording the audio conference with content presented in the conference interface comprises the steps of: selecting, using an interface on the client device, a channel to record in the conference interface (4100, 4400); and selectively recording, by the client device, the content in the conference interface (4100, 4400) according to the user selection of one or more conference channels. establishing, by a conferencing system, an audio conference between a plurality of participants accessing the conferencing system via a communication network; presenting, by the conferencing system, the audio conference and a conference interface (4100, 4400) displaying a participant object identifying each of the participants in the audio conference; synchronously recording, by a client device, the audio conference with content presented in the conference interface (4100, 4400); storing, by the client device, the synchronized audio conference and content; and playing back, by the client device, the synchronized audio conference and content, wherein the step of synchronously recording the audio conference with content presented in the conference interface comprises the steps of: selecting, using an interface on the client device, a channel to record in the conference interface (4100, 4400); and selectively recording, by the client device, the content in the conference interface (4100, 4400) according to the user selection of one or more conference channels. selecting, using an interface on the client device, a channel to record in the conference interface (4100, 4400); and selectively recording, by the client device, the content in the conference interface (4100, 4400) according to the user selection of one or more conference channels.
A gas-insulated circuit breaker comprising: a housing defining a gas volume for a dielectric gas; a nominal contact system with a first nominal contact and a second nominal contact that are electrically connectable and disconnectable relative to one another, and an interruption contact system with a pin and a tulip corresponding to the pin such that they are electrically connectable to and disconnectable from one another, wherein at least the pin is moveable along an axis of the gas-insulated circuit breaker for selectively providing and breaking an electrical connection with the tulip; a guiding assembly including a guide sleeve and a guiding member, wherein the guiding member is coupled to the pin and configured to be moved together with the pin while being glidingly guided in the guide sleeve along a guiding length; and a gas damping assembly configured to damp a breaking movement of the pin by compressing the dielectric gas in an absorber volume and having at least one moveable absorption element configured to be moved at least partially along the guiding length for compressing the dielectric gas in the absorber volume, characterized in that the absorber volume and the at least one moveable absorption element are arranged radially inward of the guide sleeve. a housing defining a gas volume for a dielectric gas; a nominal contact system with a first nominal contact and a second nominal contact that are electrically connectable and disconnectable relative to one another, and an interruption contact system with a pin and a tulip corresponding to the pin such that they are electrically connectable to and disconnectable from one another, wherein at least the pin is moveable along an axis of the gas-insulated circuit breaker for selectively providing and breaking an electrical connection with the tulip; a guiding assembly including a guide sleeve and a guiding member, wherein the guiding member is coupled to the pin and configured to be moved together with the pin while being glidingly guided in the guide sleeve along a guiding length; and a gas damping assembly configured to damp a breaking movement of the pin by compressing the dielectric gas in an absorber volume and having at least one moveable absorption element configured to be moved at least partially along the guiding length for compressing the dielectric gas in the absorber volume, characterized in that the absorber volume and the at least one moveable absorption element are arranged radially inward of the guide sleeve.
A high thermal conductivity diamond sintered compact comprising 60 vol.% to 80 vol.% of diamond grains on the whole sintered compact basis and the balance of copper, a porosity of the sintered compact being not over 0.5% by being sintered under a pressure of at least 1 GPa and a diamond grain size distribution peak in a range of from 5 μm to 100 μm, at least two of the diamond grains constructing the sintered compact being directly bonded with each other, and the sintered compact contains the copper and the quantity of oxygen in the sintered compact being at most 0.025 weight %.