mhurhangee/patent-ind-claim-en huggingface dataset:
Combined plant for cryogenic separation and liquefaction of methane and carbon dioxide in a biogas flow, comprising: - a means M1 for mixing the biogas with a recycle gas R, - a compressor for compressing the mixture to the distillation pressure, - an exchanger E01 for cooling the compressed mixture, - a distillation column K01 supplied with the cooled mixture and making it possible to produce methane at the top of the column and a CO 2 -enriched liquid at the bottom of the column, - an exchanger E02 for liquefying the methane produced at the top of the column, - a means M2 for separating the liquefied methane into two portions: a "reflux" portion and a "product" portion , - a means M3 for expanding and heating the CO 2 -enriched liquid recovered at the bottom of the column and for recovering the cold from the CO 2 -enriched liquid, and - a separator vessel V01 for receiving the CO 2 -enriched flow from the means M3 and for recovering an overhead vapour and liquid CO 2 , - a means for withdrawing vapour V from an intermediate stage of the distillation column K01, - a means for partially condensing the vapour V and producing a two-phase flow D, - a means for reinjecting the two-phase flow D into the distillation column K01 at the stage corresponding to the equilibrium temperature, with - the means M1 such that the recycle gas R corresponds to the overhead vapour recovered at the outlet of the separator vessel V01, and - the exchanger E01 and the means M3 being combined. - a means M1 for mixing the biogas with a recycle gas R, - a compressor for compressing the mixture to the distillation pressure, - an exchanger E01 for cooling the compressed mixture, - a distillation column K01 supplied with the cooled mixture and making it possible to produce methane at the top of the column and a CO 2 -enriched liquid at the bottom of the column, - an exchanger E02 for liquefying the methane produced at the top of the column, - a means M2 for separating the liquefied methane into two portions: a "reflux" portion and a "product" portion , - a means M3 for expanding and heating the CO 2 -enriched liquid recovered at the bottom of the column and for recovering the cold from the CO 2 -enriched liquid, and - a separator vessel V01 for receiving the CO 2 -enriched flow from the means M3 and for recovering an overhead vapour and liquid CO 2 , - a means for withdrawing vapour V from an intermediate stage of the distillation column K01, - a means for partially condensing the vapour V and producing a two-phase flow D, - a means for reinjecting the two-phase flow D into the distillation column K01 at the stage corresponding to the equilibrium temperature, with - the means M1 such that the recycle gas R corresponds to the overhead vapour recovered at the outlet of the separator vessel V01, and - the exchanger E01 and the means M3 being combined.
A method of manufacturing a lithium ion battery device comprising positive electrodes and negative electrodes which are laminated with each other, wherein an active material used on the positive electrodes is a sulfur-based active material having a total sulfur content of not less than 50% by mass measured by an elementary analysis, the method comprising: a step of forming, on the positive electrodes and the negative electrodes , through-holes comprising perforating the current collector coated with the active material to form perforations penetrating in a thickness direction of the electrode, a step of laminating the positive electrodes and the negative electrodes and disposing a lithium ion feeding source on at least one side of a laminating direction thereof, and a step of allowing lithium derived from the lithium ion feeding source to be carried on the positive electrodes or the negative electrodes . a step of forming, on the positive electrodes and the negative electrodes , through-holes comprising perforating the current collector coated with the active material to form perforations penetrating in a thickness direction of the electrode, a step of laminating the positive electrodes and the negative electrodes and disposing a lithium ion feeding source on at least one side of a laminating direction thereof, and a step of allowing lithium derived from the lithium ion feeding source to be carried on the positive electrodes or the negative electrodes .
A group head vortex shower adapted for use in a coffee machine and comprising a bottom wall , characterized in that said group head vortex shower further comprises: a surrounding wall extending upwardly from an outer periphery of said bottom wall , surrounding a central axis (L), cooperating with said bottom wall to define a water inlet space (W), and having a plurality of outer outlets that extend therethrough and that are in fluid communication with said water inlet space (W); and a reflection wall sleeved around said surrounding wall , and having at least one curved inner surface (S) that faces said outer outlets and that surrounds the central axis (L); wherein each of said outer outlets is disposed for outputting a water jet from said water inlet space (W) in a water outlet direction (D1...to...DN) towards said at least one curved inner surface (S) of said reflection wall ; and wherein an imaginary extension line (L1...to...LN) extending in said water outlet direction (D1...to...DN) of each of said outer outlets and the central axis (L) are skew lines. a surrounding wall extending upwardly from an outer periphery of said bottom wall , surrounding a central axis (L), cooperating with said bottom wall to define a water inlet space (W), and having a plurality of outer outlets that extend therethrough and that are in fluid communication with said water inlet space (W); and a reflection wall sleeved around said surrounding wall , and having at least one curved inner surface (S) that faces said outer outlets and that surrounds the central axis (L); wherein each of said outer outlets is disposed for outputting a water jet from said water inlet space (W) in a water outlet direction (D1...to...DN) towards said at least one curved inner surface (S) of said reflection wall ; and wherein an imaginary extension line (L1...to...LN) extending in said water outlet direction (D1...to...DN) of each of said outer outlets and the central axis (L) are skew lines.
Use of a shaped or unshaped refractory lining product for making of a fire-side lining of an industrial non-ferrous metal smelting furnace, wherein the lining product is produced from a refractory, dry, mineral batch of refractory mineral materials, composed, in terms of materials, in such a manner that refractory products for fire-side lining of industrial non-ferrous metal smelting furnaces that are resistant to fayalite slags, sulfidic melts (mattes), sulfates, and non-ferrous metal melts, over the long term, can be produced from them, and mainly having a basic batch consisting of the following basic batch components, which are mixed to come to 100 wt.-%: - 30 to 74 wt.-% of at least one low-iron, that means having less than 10 wt.- % iron (III) oxide, coarse-grained magnesia raw material with more than 90 wt.-%, preferably with more than 95 wt.-% MgO, and having a grain size distribution with at least 95 wt.-% ≥ 1.0 mm as a main component - 25 to 50 wt.-% of low-iron, that means having less than 10 wt.-% iron (III) oxide, sulfur resistant magnesia meal (MgO meal) with less than 2.5 wt.-% of silicate secondary phases and with > 90 wt.-%, preferably with > 95 wt.- % MgO, and with grain sizes of d 95 ≤ 1 mm, - 1 to 20 wt.-% of at least one refractory reagent that acts to reduce non-ferrous metal oxide melts and/or non-ferrous metal iron oxide melts during the smelting process (in situ) and to convert them to non-ferrous metal melts, in the form of mealy carbon with a grain distribution with d 95 ≤ 1 mm. - 30 to 74 wt.-% of at least one low-iron, that means having less than 10 wt.- % iron (III) oxide, coarse-grained magnesia raw material with more than 90 wt.-%, preferably with more than 95 wt.-% MgO, and having a grain size distribution with at least 95 wt.-% ≥ 1.0 mm as a main component - 25 to 50 wt.-% of low-iron, that means having less than 10 wt.-% iron (III) oxide, sulfur resistant magnesia meal (MgO meal) with less than 2.5 wt.-% of silicate secondary phases and with > 90 wt.-%, preferably with > 95 wt.- % MgO, and with grain sizes of d 95 ≤ 1 mm, - 1 to 20 wt.-% of at least one refractory reagent that acts to reduce non-ferrous metal oxide melts and/or non-ferrous metal iron oxide melts during the smelting process (in situ) and to convert them to non-ferrous metal melts, in the form of mealy carbon with a grain distribution with d 95 ≤ 1 mm.
A method for generating tactile sensations intended to be felt by a user in contact, at at least a first and a second contact point, with a surface of a rigid portion of a haptic interface , the first and second contact points being distinct from one another, the method including: - an operation of detecting and locating the first and second contact points, and - an operation of emitting control signals for simultaneously controlling at least two actuators integral with the rigid portion and mounted at a distance from each other, so as to cause a displacement (D) of said rigid portion, the control signals each including an amplitude determined so that the displacement cancels out at a predefined neutral location (PN, LN) of the rigid portion so that the user perceives a tactile sensation at all points of the surface except at the neutral location (PN, LN), this neutral location being a neutral point (PN), or a neutral line (LN), comprising one of the first or second contact points. - an operation of detecting and locating the first and second contact points, and - an operation of emitting control signals for simultaneously controlling at least two actuators integral with the rigid portion and mounted at a distance from each other, so as to cause a displacement (D) of said rigid portion, the control signals each including an amplitude determined so that the displacement cancels out at a predefined neutral location (PN, LN) of the rigid portion so that the user perceives a tactile sensation at all points of the surface except at the neutral location (PN, LN), this neutral location being a neutral point (PN), or a neutral line (LN), comprising one of the first or second contact points.
A crystalline form of tafamidis designated as form V , which is characterized by a PXRD pattern having peaks at 6.0, 19.9, 20.6, 23.9 and 29.2 degrees 2-theta ± 0.2 degrees 2-theta; wherein the PXRD data is measured using a Cu irradiation source with a wavelength of 1.54184 Ǻ.
An AC-AC matrix converter that converts an input multiphase periodic voltage with N input voltages into an output multiphase periodic voltage with N output voltages, said converter having a square matrix with N 2 switches, characterised in that the converter has command and control electronics that periodically perform at least the two following functions: - storing N! voltage summations, each voltage summation corresponding to one switch configuration, each switch configuration relating N times one and only one input voltage and one and only one reference voltage, a reference voltage corresponding to an expected output voltage, each voltage summation being the summation of the N differences in absolute value between one and only one input voltage and one and only one reference voltage - switching the matrix array of switches to apply the switch configuration corresponding to the lowest voltage summation. - storing N! voltage summations, each voltage summation corresponding to one switch configuration, each switch configuration relating N times one and only one input voltage and one and only one reference voltage, a reference voltage corresponding to an expected output voltage, each voltage summation being the summation of the N differences in absolute value between one and only one input voltage and one and only one reference voltage - switching the matrix array of switches to apply the switch configuration corresponding to the lowest voltage summation.
Use of a control device comprising a microprocessor and one or more model calculating units as a control device for controlling an engine system in a motor vehicle, wherein the model calculating unit is designed for calculating a layer of a multilayer perceptron model with a hardwired computing core formed in hardware for calculating a fixedly predefined computing algorithm in coupled functional blocks, wherein the computing core is designed, for a neuron layer of a multilayer perceptron model having a number of neurons , to calculate an output variable for each neuron depending on one or more input variables of an input variable vector (ut), a weighting matrix having weighting factors, and an offset value (p3[j]) predefined for each neuron , wherein for each neuron a sum of the values of the input variables weighted with a weighting factor - determined by the neuron and the input variable - and the offset value (p3[j]) predefined for the neuron is calculated and the result is transformed with an activation function (act) in order to obtain the output variable for the neuron , wherein the control device is configured to provide detected sensor signals (S) as input variable vector (ut) and to apply a control variable (A) to the engine system depending on a calculated output variable of the model calculating unit . wherein the model calculating unit is designed for calculating a layer of a multilayer perceptron model with a hardwired computing core formed in hardware for calculating a fixedly predefined computing algorithm in coupled functional blocks, wherein the computing core is designed, for a neuron layer of a multilayer perceptron model having a number of neurons , to calculate an output variable for each neuron depending on one or more input variables of an input variable vector (ut), a weighting matrix having weighting factors, and an offset value (p3[j]) predefined for each neuron , wherein for each neuron a sum of the values of the input variables weighted with a weighting factor - determined by the neuron and the input variable - and the offset value (p3[j]) predefined for the neuron is calculated and the result is transformed with an activation function (act) in order to obtain the output variable for the neuron , wherein the control device is configured to provide detected sensor signals (S) as input variable vector (ut) and to apply a control variable (A) to the engine system depending on a calculated output variable of the model calculating unit .
A method in a first user equipment for transmitting a beacon signal to be detected by at least one second user equipment (122; 123) for Device-to-Device, D2D, communication in a wireless telecommunications network , said method comprising transmitting the beacon signal in transmission bursts with a first energy level, wherein the transmission bursts are transmitted repeatedly over time with breaks in between in order to enable detection of the beacon signal by the at least one second user equipment (122; 123), said method further comprises: increasing the energy of the transmission bursts at one or more intervals to a second energy level such that transmission bursts with the first energy level is alternated with transmission bursts with the second energy level, and such that transmission bursts with the first energy level recur more frequently overtime than transmission bursts with a second energy level, characterized in that the one or more intervals comprises one or more periodic intervals such that, for each interval, every n th transmission burst is a transmission burst with the second energy level, wherein n = 3, 4, 5..., N and N is an integer and any of the (n+1) th to the (2n-1) th transmission burst is a transmission burst with the first energy level. transmitting the beacon signal in transmission bursts with a first energy level, wherein the transmission bursts are transmitted repeatedly over time with breaks in between in order to enable detection of the beacon signal by the at least one second user equipment (122; 123), said method further comprises: increasing the energy of the transmission bursts at one or more intervals to a second energy level such that transmission bursts with the first energy level is alternated with transmission bursts with the second energy level, and such that transmission bursts with the first energy level recur more frequently overtime than transmission bursts with a second energy level, characterized in that the one or more intervals comprises one or more periodic intervals such that, for each interval, every n th transmission burst is a transmission burst with the second energy level, wherein n = 3, 4, 5..., N and N is an integer and any of the (n+1) th to the (2n-1) th transmission burst is a transmission burst with the first energy level.
Motor vehicle door lock arrangement with a motor vehicle lock , wherein a force transmission chain is provided and wherein an actuation movement may be transmitted via the force transmission chain for opening of the motor vehicle lock , wherein a crash coupling arrangement is provided between two force transmission chain sections , which comprises a coupling element in the form of a coupling spring element , wherein the coupling spring element can be brought into a coupling state, coupling the two force transmission chain sections , and into a decoupling state, decoupling the two force transmission chain sections , wherein the crash coupling arrangement comprises a first link element assigned to one force transmission chain section and a second link element assigned to the other force transmission chain section , wherein, preferably, the link elements are moveable along a longitudinal extension of movement (L), wherein the coupling spring element for coupling the two force transmission chain sections may come into coupling engagement with at least one of the link elements , wherein an inertial characteristic of the coupling spring element causes the coupling spring element to fall into or to remain in the decoupling state, when the actuation movement surpasses a rapidity threshold, and causes the coupling spring element to fall into or to remain in the coupling state, when the actuation movement is below the rapidity threshold.
A method for a user equipment, UE, operating in a wireless communication system, the method comprising: configuring (S1301) a plurality of sidelink logical channels, wherein each of the plurality of sidelink logical channels is associated with one of a plurality of per-packet priorities; configuring (S1303) a plurality of logical channel groups, LCGs, to which the plurality of sidelink logical channels belong, based on the per-packet priority, and transmitting (S1305) a buffer status report, BSR, using the one or more logical channel groups, wherein based on a lowest priority among priorities of sidelink logical channels belonging to a first LCG is higher than a highest priority among priorities of sidelink logical channels belonging to a second LCG, a number of the priorities of sidelink logical channels belonging to the first LCG is equal to or less than a number of the priorities of sidelink logical channels belonging to the second LCG, wherein a number of the plurality of LCGs are 4, a number of the plurality of priorities are 8, and wherein the plurality of LCGs are associated with the plurality of priorities as one of following options, LCG 0 LCG 1 LCG 2 LCG 3 Option 1 PPP0 PPP 1 PPP 2 PPP 3, PPP 4, PPP 5, PPP6, PPP 7 Option 2 PPP 0 PPP 1 PPP 2, PPP 3 PPP 4, PPP 5, PPP6, PPP 7 Option 3 PPP 0 PPP 1 PPP 2, PPP 3, PPP 4 PPP 5, PPP6, PPP 7 Option 4 PPP0 PPP 1, PPP 2 PPP 3, PPP 4 PPP 5, PPP6, PPP 7 wherein LCG x is one of the plurality of LCGs, where x is integer among 0 to 3, wherein PPP y is a y-th higher priority among the plurality of priorities, where y is integer among 0 to 7. configuring (S1301) a plurality of sidelink logical channels, wherein each of the plurality of sidelink logical channels is associated with one of a plurality of per-packet priorities; configuring (S1303) a plurality of logical channel groups, LCGs, to which the plurality of sidelink logical channels belong, based on the per-packet priority, and transmitting (S1305) a buffer status report, BSR, using the one or more logical channel groups, wherein based on a lowest priority among priorities of sidelink logical channels belonging to a first LCG is higher than a highest priority among priorities of sidelink logical channels belonging to a second LCG, a number of the priorities of sidelink logical channels belonging to the first LCG is equal to or less than a number of the priorities of sidelink logical channels belonging to the second LCG, wherein a number of the plurality of LCGs are 4, a number of the plurality of priorities are 8, and wherein the plurality of LCGs are associated with the plurality of priorities as one of following options, LCG 0 LCG 1 LCG 2 LCG 3 Option 1 PPP0 PPP 1 PPP 2 PPP 3, PPP 4, PPP 5, PPP6, PPP 7 Option 2 PPP 0 PPP 1 PPP 2, PPP 3 PPP 4, PPP 5, PPP6, PPP 7 Option 3 PPP 0 PPP 1 PPP 2, PPP 3, PPP 4 PPP 5, PPP6, PPP 7 Option 4 PPP0 PPP 1, PPP 2 PPP 3, PPP 4 PPP 5, PPP6, PPP 7 wherein LCG x is one of the plurality of LCGs, where x is integer among 0 to 3, wherein PPP y is a y-th higher priority among the plurality of priorities, where y is integer among 0 to 7.
An air management device comprising: a housing having a primary space and a secondary space adjacent to the primary space , the housing having discharge ports (15'-1, 15'-2, 15'-3) facing a front of the housing and an inlet at a lower section of the housing , wherein the primary space and the secondary space are arranged horizontally side-by-side, the discharge ports (15'-1, 15'-2, 15'-3) are provided in the primary space , and the housing includes a top plate providing a flat planar top surface of the housing ; a plurality of impellers (131, 131', 131") configured to create air flow from the inlet and through the primary space ; a heat exchanger provided in the housing and between the inlet and the discharge ports (15'-1, 15'-2, 15'-3); an impeller guide having a plurality of spaces to guide the air flow exhausted by the plurality of the impellers (131, 131', 131") to the discharge ports (15'-1, 15'-2, 15'-3) and a branch air flow passage to divert at least a portion of the air flow to the secondary space ; a vertical duct provided in the secondary space to create a vertical flow path for receiving the air flow diverted by the branch air flow passage ; and a pop-up duct provided in the vertical duct such that the diverted air flow is vented through the pop-up duct when the pop-up duct protrudes above the top surface of the housing . a housing having a primary space and a secondary space adjacent to the primary space , the housing having discharge ports (15'-1, 15'-2, 15'-3) facing a front of the housing and an inlet at a lower section of the housing , wherein the primary space and the secondary space are arranged horizontally side-by-side, the discharge ports (15'-1, 15'-2, 15'-3) are provided in the primary space , and the housing includes a top plate providing a flat planar top surface of the housing ; a plurality of impellers (131, 131', 131") configured to create air flow from the inlet and through the primary space ; a heat exchanger provided in the housing and between the inlet and the discharge ports (15'-1, 15'-2, 15'-3); an impeller guide having a plurality of spaces to guide the air flow exhausted by the plurality of the impellers (131, 131', 131") to the discharge ports (15'-1, 15'-2, 15'-3) and a branch air flow passage to divert at least a portion of the air flow to the secondary space ; a vertical duct provided in the secondary space to create a vertical flow path for receiving the air flow diverted by the branch air flow passage ; and a pop-up duct provided in the vertical duct such that the diverted air flow is vented through the pop-up duct when the pop-up duct protrudes above the top surface of the housing .