mhurhangee/ep-ind-claims huggingface dataset:
A method of performing Automatic Gain Control, or AGC, for a receiver of a device connected to a wireless communication system, the method comprising: - receiving a signal using a gain setting (310; 410; 510; 610) of the receiver; - decoding the received signal (301; 401; 501; 601) to obtain a decoding result, wherein the decoding result includes a Cyclic Redundancy Check of the decoded signal and indicates success or failure of the decoding; and - selecting the gain setting based on the decoding result, wherein selecting the gain setting comprises i. maintaining the gain setting of the receiver in the presence of an interference in the received signal, the failure of the decoding indicating the presence of the interference. - receiving a signal using a gain setting (310; 410; 510; 610) of the receiver; - decoding the received signal (301; 401; 501; 601) to obtain a decoding result, wherein the decoding result includes a Cyclic Redundancy Check of the decoded signal and indicates success or failure of the decoding; and - selecting the gain setting based on the decoding result, wherein selecting the gain setting comprises i. maintaining the gain setting of the receiver in the presence of an interference in the received signal, the failure of the decoding indicating the presence of the interference. i. maintaining the gain setting of the receiver in the presence of an interference in the received signal, the failure of the decoding indicating the presence of the interference.
An inkjet printer comprising: a head for recording an image on a recording medium, based on print data; a transport mechanism for moving said recording medium in a transport direction relative to said head; a controller for controlling said head and said transport mechanism; and a computation part for determining the upper limit of a transport speed of said recording medium moved by said transport mechanism, based on said print data, characterised by said head including a plurality of blocks arranged in a width direction perpendicular to said transport direction, a plurality of nozzles arranged in said blocks, and a pressurizing mechanism for causing said nozzles to eject droplets, said computation part being configured to perform the steps of a) calculating a load factor indicative of a load on said pressurizing mechanism for each of said blocks (S -S), based on said print data, and b) factoring in said load factor for each of said blocks to determine the upper limit of said transport speed so that the upper limit becomes slower as said load factor increases and becomes slower as a printing distance in said transport direction corresponding to said print data increases, said controller controlling said transport mechanism at a transport speed not greater than said upper limit. a head for recording an image on a recording medium, based on print data; a transport mechanism for moving said recording medium in a transport direction relative to said head; a controller for controlling said head and said transport mechanism; and a computation part for determining the upper limit of a transport speed of said recording medium moved by said transport mechanism, based on said print data, characterised by said head including a plurality of blocks arranged in a width direction perpendicular to said transport direction, a plurality of nozzles arranged in said blocks, and a pressurizing mechanism for causing said nozzles to eject droplets, said computation part being configured to perform the steps of a) calculating a load factor indicative of a load on said pressurizing mechanism for each of said blocks (S -S), based on said print data, and b) factoring in said load factor for each of said blocks to determine the upper limit of said transport speed so that the upper limit becomes slower as said load factor increases and becomes slower as a printing distance in said transport direction corresponding to said print data increases, a) calculating a load factor indicative of a load on said pressurizing mechanism for each of said blocks (S -S), based on said print data, and b) factoring in said load factor for each of said blocks to determine the upper limit of said transport speed so that the upper limit becomes slower as said load factor increases and becomes slower as a printing distance in said transport direction corresponding to said print data increases, said controller controlling said transport mechanism at a transport speed not greater than said upper limit.
A method for co-production of an alkylbenzene product and an oleochemical product from a natural oil, the method comprising: fat splitting the natural oil to form a stream of free fatty acids; fractionating the stream of free fatty acids to separate a first portion of free fatty acids and a second portion of free fatty acids; processing the first portion of free fatty acids to provide the alkylbenzene product; and processing the second portion of free fatty acids to form the oleochemical product; wherein processing the first portion of free fatty acids comprises: deoxygenating the first portion of free fatty acids to produce normal paraffins; dehydrogenating the normal paraffins to provide mono-olefins; alkylating benzene with the mono-olefins under alkylation conditions to provide an alkylation effluent comprising alkylbenzenes and benzene; and isolating the alkylbenzenes to provide the alkylbenzene product; and wherein processing the second portion of free fatty acids comprises performing an esterification process and a sulfonation process to form a methyl ester sulfonate product. fat splitting the natural oil to form a stream of free fatty acids; fractionating the stream of free fatty acids to separate a first portion of free fatty acids and a second portion of free fatty acids; processing the first portion of free fatty acids to provide the alkylbenzene product; and processing the second portion of free fatty acids to form the oleochemical product; wherein processing the first portion of free fatty acids comprises: deoxygenating the first portion of free fatty acids to produce normal paraffins; dehydrogenating the normal paraffins to provide mono-olefins; alkylating benzene with the mono-olefins under alkylation conditions to provide an alkylation effluent comprising alkylbenzenes and benzene; and isolating the alkylbenzenes to provide the alkylbenzene product; and deoxygenating the first portion of free fatty acids to produce normal paraffins; dehydrogenating the normal paraffins to provide mono-olefins; alkylating benzene with the mono-olefins under alkylation conditions to provide an alkylation effluent comprising alkylbenzenes and benzene; and isolating the alkylbenzenes to provide the alkylbenzene product; and wherein processing the second portion of free fatty acids comprises performing an esterification process and a sulfonation process to form a methyl ester sulfonate product.
A method for determining the integrity of video, the method comprising the steps of: instructing at least one external apparatus to produce and apply stimuli to a camera while a video is being taken by the camera, wherein the external apparatus comprises a camera mounting; recording time periods during which the stimuli are applied; receiving the video taken by the camera; determining if the recorded time periods during which the stimuli are applied correspond to a response seen within the video taken by the camera; and determining the integrity of the video taken by the camera, based on whether the recorded time periods during which the stimuli are applied correspond to responses seen within the video taken by the camera. instructing at least one external apparatus to produce and apply stimuli to a camera while a video is being taken by the camera, wherein the external apparatus comprises a camera mounting; recording time periods during which the stimuli are applied; receiving the video taken by the camera; determining if the recorded time periods during which the stimuli are applied correspond to a response seen within the video taken by the camera; and determining the integrity of the video taken by the camera, based on whether the recorded time periods during which the stimuli are applied correspond to responses seen within the video taken by the camera.
A method of making an aluminum alloy article, the method comprising: casting an aluminum alloy to form an aluminum alloy cast product; homogenizing the aluminum alloy cast product to form a homogenized aluminum alloy cast product; subjecting the homogenized aluminum alloy cast product to a first rolling process to form a first rolled aluminum alloy product having a first thickness, wherein the first rolling process comprises one or more hot rolling passes followed by one or more cold rolling passes; annealing the first rolled aluminum alloy product at a temperature of not more than 50 °C above a minimum recrystallization temperature of the aluminum alloy to form a first annealed aluminum alloy product; and subjecting the first annealed aluminum alloy product to a second rolling process to form a second rolled aluminum alloy product having a second thickness, wherein the annealing is carried out at a first temperature above the minimum recrystallization temperature for a first period of time and at a second temperature above the minimum recrystallization temperature for a second period of time, wherein the first temperature above the minimum recrystallization temperature is greater than the second temperature above the minimum recrystallization temperature, and wherein the aluminum alloy is a 7xxx series aluminum alloy. casting an aluminum alloy to form an aluminum alloy cast product; homogenizing the aluminum alloy cast product to form a homogenized aluminum alloy cast product; subjecting the homogenized aluminum alloy cast product to a first rolling process to form a first rolled aluminum alloy product having a first thickness, wherein the first rolling process comprises one or more hot rolling passes followed by one or more cold rolling passes; annealing the first rolled aluminum alloy product at a temperature of not more than 50 °C above a minimum recrystallization temperature of the aluminum alloy to form a first annealed aluminum alloy product; and subjecting the first annealed aluminum alloy product to a second rolling process to form a second rolled aluminum alloy product having a second thickness, wherein the annealing is carried out at a first temperature above the minimum recrystallization temperature for a first period of time and at a second temperature above the minimum recrystallization temperature for a second period of time, wherein the first temperature above the minimum recrystallization temperature is greater than the second temperature above the minimum recrystallization temperature, and
Wall cladding, comprising: - a support structure; - wall cladding elements; - at least one structure securing element which is attachable to the support structure in such a way that this structure securing element is displaceable in a first direction with respect to this support structure; - for each wall cladding element, at least one cladding securing element which forms part of this wall cladding element or is attached thereto; - wherein the structure securing element and the cladding securing element are provided with respective corresponding fitting elements (6, 7, 8) for mutual attachment, wherein the structure securing element and cladding securing element are mutually displaceable in a mutually coupled position in a second direction, different from the first direction; characterized in that the structure securing element is provided with several of said fitting elements (6, 7) which, viewed along the first direction, are arranged in a distributed manner with respect to each other and/or the cladding securing element is provided with several of said fitting elements which, viewed along the first direction, are arranged in a distributed manner with respect to each other, so that the structure securing element and the cladding securing element are mutually attachable at several respective fitting positions, wherein the corresponding wall cladding element assumes several corresponding positions, viewed in the plane in which the wall cladding substantially extends in the installed position. - a support structure; - wall cladding elements; - at least one structure securing element which is attachable to the support structure in such a way that this structure securing element is displaceable in a first direction with respect to this support structure; - for each wall cladding element, at least one cladding securing element which forms part of this wall cladding element or is attached thereto; - wherein the structure securing element and the cladding securing element are provided with respective corresponding fitting elements (6, 7, 8) for mutual attachment, wherein the structure securing element and cladding securing element are mutually displaceable in a mutually coupled position in a second direction, different from the first direction;
A process for increasing the proportion of the 7β-epimer in an 7α/7β-epimer mixture of a 7-substituted 6α,14α-ethenomorphinan or a 7-substituted 6α,14α-ethanomorphinan, said process comprising: contacting a solution of the 7α/7β-epimer mixture with an acid to provide a precipitate, and isolating the precipitate to provide an isolated precipitate and a mother liquor, wherein the acid is an achiral acid, and wherein the acid is an aliphatic monocarboxylic acid which is optionally substituted. contacting a solution of the 7α/7β-epimer mixture with an acid to provide a precipitate, and isolating the precipitate to provide an isolated precipitate and a mother liquor, wherein the acid is an achiral acid, and wherein the acid is an aliphatic monocarboxylic acid which is optionally substituted.
Process for the manufacture of a compound of the structure with R 2 = CH 2 R 3 wherein R 3 or NHR'" with R'" = formyl, wherein 1 equivalent of an α-formyl-β-formylaminopropionitrile salt is reacted with 0.75 to 2 equivalents of an acetamidine salt in the presence of a Lewis acid at the following reaction conditions: a. a reaction temperature of 65 to 200 °C; b. a pressure of 1 to 10 bar; c. a reaction time of 0.5 to 20 hours; d. a concentration of 1 - 50 wt.-% α-formyl-β-formylaminopropionitrile salt in a corresponding solvent; e. stirring between 100 and 900 rps; f. under air or nitrogen or argon or mixtures thereof. a. a reaction temperature of 65 to 200 °C; b. a pressure of 1 to 10 bar; c. a reaction time of 0.5 to 20 hours; d. a concentration of 1 - 50 wt.-% α-formyl-β-formylaminopropionitrile salt in a corresponding solvent; e. stirring between 100 and 900 rps; f. under air or nitrogen or argon or mixtures thereof.
A composition comprising - at least one perillic acid compound, selected from the group consisting of perillic acid, one or more salts of perillic acid, one or more hydrolysable esters of perillic acid and/or one or more hydrolysable ethers of perillic acid, and - water, wherein the composition has a pH in the range of from 2 to <6.5. - at least one perillic acid compound, selected from the group consisting of perillic acid, one or more salts of perillic acid, one or more hydrolysable esters of perillic acid and/or one or more hydrolysable ethers of perillic acid, and - water,
A package comprising a container having an open end and a closed end, and comprising a pair of sidewalls (44, 46), at least one facing panel connecting the sidewalls, and an end wall; the container having a slider (54, 400) slidably mounted therein, the slider comprising at least one facing panel, and an end wall (67, 470), the slider having a first end that is closest to the end wall of the container, and an opposite second end defined by the end wall (67, 470) of the slider; wherein the end wall (67, 470) of the slider is connected to a facing panel of the slider at a first edge of the end wall of the slider, and is connected to a panel (82, 406) of a blister pack carrier at an opposite second edge of the end wall, the first and second edges of the end wall being connected by side edges (71, 73) of the end wall; characterised in that the slider comprises at least one sidewall (60, 104), wherein the at least one sidewall (60, 104) of the slider terminates at a position spaced from the end wall (67, 470) of the slider; and wherein the slider comprises at least one flap (68,70, 490, 492) connected to a respective side edge (71, 73) of the end wall along a foldline, the or each said flap (68, 70) being folded toward an end of the sidewall on its respective side of the slider and extending over at least a portion of the distance between the end of the sidewall (60, 104) and the end wall (67, 470) of the slider.
A control device for an inverter intended to be connected to a motor having N phases (106, 108, 110) for having respectively applied N phase voltages (U, V, W) thereto, the N phase voltages (U, V, W) defining a vector space (Esp) each phase voltage (U, V, W) of which forms one dimension, N being higher than or equal to three, the inverter being designed to assume several states in each of which it is designed to apply predetermined phase voltages to the phases (106, 108, 110) of the motor, the predetermined phase voltages of each state of the inverter forming a predetermined vector (M1...M27) in the vector space (Esp), the control device including: - a unit for receiving, for a time interval, phase voltage setpoints forming a setpoint vector in the vector space (Esp), - a unit for selecting at least N+1 states of the inverter respectively associated with at least N+1 predetermined vectors (M1...M27) defining a volume in the vector space (Esp) containing the setpoint vector, - a unit for controlling the inverter, over the time interval, to successively place it in the selected states, such that it substantially applies, on average over the time interval, the phase voltage setpoints, the control device being such that selecting of the at least N+1 states of the inverter is carried out from groups of at least N+1 states of the inverter, the at least N+1 states of the inverter of at least one of the groups being respectively associated with N+1 predetermined vectors (M1...M27) at least N of which are formed by zero-sum predetermined phase voltages and at least one of which is formed by non-zero sum predetermined phase voltages. - a unit for receiving, for a time interval, phase voltage setpoints forming a setpoint vector in the vector space (Esp), - a unit for selecting at least N+1 states of the inverter respectively associated with at least N+1 predetermined vectors (M1...M27) defining a volume in the vector space (Esp) containing the setpoint vector, - a unit for controlling the inverter, over the time interval, to successively place it in the selected states, such that it substantially applies, on average over the time interval, the phase voltage setpoints, the control device being such that selecting of the at least N+1 states of the inverter is carried out from groups of at least N+1 states of the inverter, the at least N+1 states of the inverter of at least one of the groups being respectively associated with N+1 predetermined vectors (M1...M27) at least N of which are formed by zero-sum predetermined phase voltages and at least one of which is formed by non-zero sum predetermined phase voltages.
A non-aqueous electrolyte solution for a lithium secondary battery, the electrolyte solution comprising: an ionic solution including at least one anion selected from the group consisting of a bis(fluorosulfonyl)imide anion and a bis(trifluoromethane)sulfonylimide anion, a cation, and a non-aqueous solvent; a lithium salt; a phosphite-based additive; and a surfactant including an oligomer represented by Formula 1 below, wherein, in Formula 1, R 0 and R 0 ' are each independently a substituted or unsubstituted alkylene group having 1 to 5 carbon atoms, R and R' are each independently an aliphatic, alicyclic or aromatic hydrocarbon group, R" and R′′′ are each independently hydrogen or an alkyl group having 1 to 3 carbon atoms, a is an integer of 1 to 3, b is an integer of 0 to 2, m1 and m3 are each independently an integer selected from among 1 to 15, m2 is an integer selected from among 1 to 10, and x is an integer selected from among 1 to 15. an ionic solution including at least one anion selected from the group consisting of a bis(fluorosulfonyl)imide anion and a bis(trifluoromethane)sulfonylimide anion, a cation, and a non-aqueous solvent; a lithium salt; a phosphite-based additive; and a surfactant including an oligomer represented by Formula 1 below, wherein, in Formula 1, R 0 and R 0 ' are each independently a substituted or unsubstituted alkylene group having 1 to 5 carbon atoms, R and R' are each independently an aliphatic, alicyclic or aromatic hydrocarbon group, R" and R′′′ are each independently hydrogen or an alkyl group having 1 to 3 carbon atoms, a is an integer of 1 to 3, b is an integer of 0 to 2, m1 and m3 are each independently an integer selected from among 1 to 15, m2 is an integer selected from among 1 to 10, and x is an integer selected from among 1 to 15. R 0 and R 0 ' are each independently a substituted or unsubstituted alkylene group having 1 to 5 carbon atoms, R and R' are each independently an aliphatic, alicyclic or aromatic hydrocarbon group, R" and R′′′ are each independently hydrogen or an alkyl group having 1 to 3 carbon atoms, a is an integer of 1 to 3, b is an integer of 0 to 2, m1 and m3 are each independently an integer selected from among 1 to 15, m2 is an integer selected from among 1 to 10, and x is an integer selected from among 1 to 15.
A method of manufacturing a neck bent container comprising: injection molding a preform having a bottomed cylindrical shape, wherein the preform is made of resin; stretching the preform containing residual heat from the injection molding, with a stretching rod; and blow-molding the neck bent container, in which a central axis of a container neck portion is inclined with respect to an axial direction of a container body portion, by introducing a pressurized fluid into the preform disposed in a mold, wherein the container body portion of the neck bent container has a flat shape in which a dimension in a first direction in a container cross section is longer than a dimension in a second direction perpendicular to the first direction, the container neck portion is inclined in the first direction, in a circumferential cross section of the preform, a thickness of a first region corresponding to a surface extending in the first direction of a container is set to be thicker than a thickness of a second region corresponding to a surface extending in the second direction of the container, and the thickness of the first region in an axial cross section is set to be thicker on a bottom portion side than an opening side. injection molding a preform having a bottomed cylindrical shape, wherein the preform is made of resin; stretching the preform containing residual heat from the injection molding, with a stretching rod; and blow-molding the neck bent container, in which a central axis of a container neck portion is inclined with respect to an axial direction of a container body portion, by introducing a pressurized fluid into the preform disposed in a mold, wherein the container body portion of the neck bent container has a flat shape in which a dimension in a first direction in a container cross section is longer than a dimension in a second direction perpendicular to the first direction, the container neck portion is inclined in the first direction, in a circumferential cross section of the preform, a thickness of a first region corresponding to a surface extending in the first direction of a container is set to be thicker than a thickness of a second region corresponding to a surface extending in the second direction of the container, and the thickness of the first region in an axial cross section is set to be thicker on a bottom portion side than an opening side.