mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a clamping system for fixing a stack of electrode foils for subsequent battery cell manufacture for a traction battery for vehicles, wherein the clamping system has a base plate , a pressure plate , at least two clamping elements and a receiving region for receiving the stack between the base plate and the pressure plate , wherein the clamping elements clamp the base plate and the pressure plate against one another in such a way that the electrode foils can be fixed in the receiving region , wherein the clamping elements are arranged in the edge regions of the respective long sides of the plates outside the receiving region , characterized in that the clamping system loaded in this way runs through various subsequent manufacturing steps until finally sealing foils are laid and welded, wherein the manufacturing steps comprise welding arrester lugs, high-potential testing, taping, drying and/or sealing the individual cell into a sealing foil.
Electronic equipment for supervising valves of a hydraulic circuit , each valve being movable between an open position and a closed position, the equipment comprising : - a plurality of electronic devices for detecting changes in position , each being associated with a respective valve and being configured to detect a change of position of the valve between its open position and its closed position, - an electronic apparatus for supervising the valves of the hydraulic circuit , and - a system for radio transmission of messages between each device for detecting changes in position and the supervisory apparatus , characterized in that the supervisory apparatus is configured to calculate a sequence of successive changes of valve positions from messages received from the devices for detecting changes in position via the radio transmission system , to compare the calculated sequence with a predefined sequence, and to generate a signal based on the comparison between the calculated sequence and the predefined sequence, and in that the generated signal is a warning signal when a difference is detected between the calculated sequence and the predefined sequence. - a plurality of electronic devices for detecting changes in position , each being associated with a respective valve and being configured to detect a change of position of the valve between its open position and its closed position, - an electronic apparatus for supervising the valves of the hydraulic circuit , and - a system for radio transmission of messages between each device for detecting changes in position and the supervisory apparatus , characterized in that the supervisory apparatus is configured to calculate a sequence of successive changes of valve positions from messages received from the devices for detecting changes in position via the radio transmission system , to compare the calculated sequence with a predefined sequence, and to generate a signal based on the comparison between the calculated sequence and the predefined sequence, and in that the generated signal is a warning signal when a difference is detected between the calculated sequence and the predefined sequence.
A method for determining a charger , wherein the method is applied to an electronic device , and the method comprises: after a charge loop has been formed by the charger and the electronic device by using charge interfaces VBUS and GND, receiving (S201), by the electronic device, charging current from the charger; detecting (S204) a charging current output from the charger a) after having output an instruction signal, wherein the instruction signal is used to instruct the charger to output a charging current based on preset amplitude values that are a sequence of variable current, or b) a preset moment after the charger and the electronic device have formed the charge loop; when amplitude values of the charging current are a sequence of variable current, quantifying (S205) the current sequence into a binary sequence; determining (S206) whether the quantified binary sequence is the same as a prestored binary sequence; and when the quantified binary sequence is different from the prestored binary sequence, outputting (S208) prompt information indicating that the charger is a non-standard configuration charger. after a charge loop has been formed by the charger and the electronic device by using charge interfaces VBUS and GND, receiving (S201), by the electronic device, charging current from the charger; detecting (S204) a charging current output from the charger a) after having output an instruction signal, wherein the instruction signal is used to instruct the charger to output a charging current based on preset amplitude values that are a sequence of variable current, or b) a preset moment after the charger and the electronic device have formed the charge loop; a) after having output an instruction signal, wherein the instruction signal is used to instruct the charger to output a charging current based on preset amplitude values that are a sequence of variable current, or b) a preset moment after the charger and the electronic device have formed the charge loop; when amplitude values of the charging current are a sequence of variable current, quantifying (S205) the current sequence into a binary sequence; determining (S206) whether the quantified binary sequence is the same as a prestored binary sequence; and when the quantified binary sequence is different from the prestored binary sequence, outputting (S208) prompt information indicating that the charger is a non-standard configuration charger.
A computer-implemented method of monitoring brain function in a patient, the method including: identifying the network connections between the node signals on an EEG recording performed on the patient over a period of time, by using a method of identifying, in a network of interacting nodes simultaneously producing signals, connections between said nodes and of estimating connection coefficients between nodes identified as connected, the method including the steps of: periodically recording the signal at each node over a predetermined period of time to form a data set (S101); calculating the coherence and partial coherence between each combination of nodes in the data set (S102); characterised in that the method further comprises: checking, for each combination of nodes, if either the coherence or the partial coherence is below a first predetermined threshold and, if so, setting the corresponding connection coefficient to zero for all subsequent steps (S103); a first estimating step of estimating, from the data set, the connection coefficients for the combinations of nodes for which the connection coefficient has not already been set to zero (S104); for each connection coefficient estimated by said first estimating step to be below a second threshold, setting said coefficient to zero for all subsequent steps (S105); and a second estimating step of re-estimating, from the data set, the connection coefficients for the combinations of nodes for which the connection coefficients have not already been set to zero (S106). periodically recording the signal at each node over a predetermined period of time to form a data set (S101); calculating the coherence and partial coherence between each combination of nodes in the data set (S102); checking, for each combination of nodes, if either the coherence or the partial coherence is below a first predetermined threshold and, if so, setting the corresponding connection coefficient to zero for all subsequent steps (S103); a first estimating step of estimating, from the data set, the connection coefficients for the combinations of nodes for which the connection coefficient has not already been set to zero (S104); for each connection coefficient estimated by said first estimating step to be below a second threshold, setting said coefficient to zero for all subsequent steps (S105); and a second estimating step of re-estimating, from the data set, the connection coefficients for the combinations of nodes for which the connection coefficients have not already been set to zero (S106).
Electric connector assembly for electrically contacting at least one bipolar plate of a fuel cell stack comprising at least a support structure and at least one contact pin , which is adapted to electrically contacting the bipolar plate and is supported by the support structure , characterized in that the support structure comprises at least a rear face (R) which is adapted to face the fuel cell stack , a front face (F) being opposite to the rear face (R), and first and second side faces (S 1 ; S 2 ), wherein the rear face (R) comprises at least one bipolar plate housing slit which extends from the first side face (S 1 ) to the second side face (S 2 ), and which is adapted to accommodate at least partly the bipolar plate , thereby defining a comb-shaped support structure with at least two teeth extend from a support basis , which are separated by the intermediately arranged bipolar plate housing slit , and wherein the support structure further comprises at least one contact pin accommodation opening having a size which is adapted to accommodate the contact pin , wherein the at least one contact pin accommodation opening is arranged in the support basis and extends at least from the front face (F) to the bipolar plate housing slit , thereby defining a contact pin hole in the front face (F) and wherein the support structure comprises a plurality of bipolar plate housing slits and a plurality of contact pin accommodation openings , wherein each slit comprises a single opening .
Child safety seat comprising a seat base and a seat back , the child safety seat being convertible between a backless booster configuration and a highback booster configuration, in the backless booster configuration a first side of the seat back providing the sitting area of the seat and a second side of the seat back being opposite to the seat base , the first side being opposite to the second side , in the highback booster configuration the seat base providing the sitting area of the seat and the second side of the seat back providing a back rest of the seat.
Use of the compound 1-phenyl-4-(1-piperidinyl)-1H-Pyrazolo[3,4-d]pyrimidine for the manufacture of a medicament for the treatment of pulmonary arterial hypertension.
A compound of formula (I) or a pharmaceutically acceptable salt thereof: AA1-Arg-Val-AA4-AA5-His-Pro-AA8-OH (I), wherein AA1 is an amino acid residue selected from the group consisting of sarcosine and ( -2,3,4,5,6-pentahydroxyhexyl)glycine; AA4 is an amino acid residue selected from the group consisting of tyrosine or meta- tyrosine, each of which is optionally substituted with at least one substituent selected from the group consisting of halo and hydroxyl; AA5 is an amino acid residue selected from the group consisting of valine, leucine, isoleucine, glycine, alanine, phenylalanine, threonine, lysine, and tyrosine, each of which is optionally substituted with at least one substituent selected from the group consisting of C 1-6 alkyl, C 4-6 cycloalkyl, NH 2 , aryl, and heteroaryl; and AA8 is an amino acid residue selected from the group consisting of 1-naphthylalanine, (3-benzothienyl)alanine, and phenylalanine substituted with at least one substituent selected from the group consisting of C 1-6 alkyl, C 1-6 haloalkyl, C 4-6 cycloalkyl, halo, CN, aryl, and heteroaryl, in which the at least one substituent is at the 2-position on the phenyl ring of the phenylalanine; wherein AA8 is a D-amino acid residue, and each of Arg, Val, AA4, AA5, His, and Pro in formula (I) is an L-amino acid residue; and wherein the compound of formula (I) exhibits angiotensin-1-receptor antagonist activity. AA1 is an amino acid residue selected from the group consisting of sarcosine and ( -2,3,4,5,6-pentahydroxyhexyl)glycine; AA4 is an amino acid residue selected from the group consisting of tyrosine or meta- tyrosine, each of which is optionally substituted with at least one substituent selected from the group consisting of halo and hydroxyl; AA5 is an amino acid residue selected from the group consisting of valine, leucine, isoleucine, glycine, alanine, phenylalanine, threonine, lysine, and tyrosine, each of which is optionally substituted with at least one substituent selected from the group consisting of C 1-6 alkyl, C 4-6 cycloalkyl, NH 2 , aryl, and heteroaryl; and AA8 is an amino acid residue selected from the group consisting of 1-naphthylalanine, (3-benzothienyl)alanine, and phenylalanine substituted with at least one substituent selected from the group consisting of C 1-6 alkyl, C 1-6 haloalkyl, C 4-6 cycloalkyl, halo, CN, aryl, and heteroaryl, in which the at least one substituent is at the 2-position on the phenyl ring of the phenylalanine;
A process for forming a catalyst, which process comprises I) bringing together a carrier or a substrate and an impregnation solution, wherein said solution comprises an aqueous medium, i) at least one Group VI metal, ii) at least one Group VIII metal, and iii) at least one phosphorus compound, wherein the solution is characterized by a Group VI metal concentration in the range of 6.9 mol/l to 9.7 mol/l, and a) a phosphorus concentration in the range of from 0. 40 to 1.7 mol/l and a P:Group VI molar ratio of from 1:6 to 1:12; b) a phosphorus concentration in the range of from 1.1 to 3.3 mol/l and a P:Group VI molar ratio of from 1:3 to 1:6; c) a phosphorus concentration in the range of from 2.2 to 6 mol/l and a P:Group VI molar ratio of from 1:1 to 1:3; or d) a phosphorus concentration in the range of from about 0.5 to about 6.00 mol/l and a P:Group VI molar ratio of from about 1:1 to about 1:12; wherein Group VI metal present in the solution is molybdenum, tungsten, and/or chromium and the Group VIII metal present in the solution is iron, nickel and/or cobalt; and wherein the aqueous medium is water; and II) drying the intermediate product, to form a catalyst. I) bringing together a carrier or a substrate and an impregnation solution, wherein said solution comprises an aqueous medium, i) at least one Group VI metal, ii) at least one Group VIII metal, and iii) at least one phosphorus compound, wherein the solution is characterized by a Group VI metal concentration in the range of 6.9 mol/l to 9.7 mol/l, and a) a phosphorus concentration in the range of from 0. 40 to 1.7 mol/l and a P:Group VI molar ratio of from 1:6 to 1:12; b) a phosphorus concentration in the range of from 1.1 to 3.3 mol/l and a P:Group VI molar ratio of from 1:3 to 1:6; c) a phosphorus concentration in the range of from 2.2 to 6 mol/l and a P:Group VI molar ratio of from 1:1 to 1:3; or d) a phosphorus concentration in the range of from about 0.5 to about 6.00 mol/l and a P:Group VI molar ratio of from about 1:1 to about 1:12; wherein Group VI metal present in the solution is molybdenum, tungsten, and/or chromium and the Group VIII metal present in the solution is iron, nickel and/or cobalt; and wherein the aqueous medium is water; and i) at least one Group VI metal, ii) at least one Group VIII metal, and iii) at least one phosphorus compound, II) drying the intermediate product, to form a catalyst.
Method for forming a contact on a semiconductor substrate comprising the following steps: applying at least one metal to at least one exposed partial area of an outer side of the semiconductor substrate and/or a layer applied to the semiconductor substrate , wherein the partial area is surrounded by at least one edge region of an insulating layer , and wherein the at least one edge region of the insulating layer is at least partly covered with the at least one metal (S1); heating the semiconductor substrate with the at least one metal applied on the at least one partial area and the at least one edge region , as a result of which the at least one metal applied to the at least one partial area reacts with at least one semiconductor material of the at least one partial area to form a semiconductor-metal material as final material for further processing material of the at least one contact (S3); and carrying out an etching step using an etching material having a higher etching rate for the at least one metal and for the semiconductor-metal material (S4), characterized by the step that between applying the at least one metal and heating the semiconductor substrate , at least one ion beam etching step is carried out in an etching direction which is inclined with respect to an axis oriented perpendicularly to the outer side of the semiconductor substrate . applying at least one metal to at least one exposed partial area of an outer side of the semiconductor substrate and/or a layer applied to the semiconductor substrate , wherein the partial area is surrounded by at least one edge region of an insulating layer , and wherein the at least one edge region of the insulating layer is at least partly covered with the at least one metal (S1); heating the semiconductor substrate with the at least one metal applied on the at least one partial area and the at least one edge region , as a result of which the at least one metal applied to the at least one partial area reacts with at least one semiconductor material of the at least one partial area to form a semiconductor-metal material as final material for further processing material of the at least one contact (S3); and carrying out an etching step using an etching material having a higher etching rate for the at least one metal and for the semiconductor-metal material (S4), characterized by the step that between applying the at least one metal and heating the semiconductor substrate , at least one ion beam etching step is carried out in an etching direction which is inclined with respect to an axis oriented perpendicularly to the outer side of the semiconductor substrate .
A method for measuring performance of at least one device under test, DUT, in a reverberation chamber over a frequency band , the method comprising, iteratively; generating (S1) a fading scenario by the reverberation chamber , identifying (S2) at least one measurement sub-band comprised in the frequency band , measuring (S3) performance of the at least one DUT in the at least one identified measurement sub-band, thereby generating at least one performance measurement result, accumulating (S4) the at least one performance measurement result, and determining (S5) measurement coverage and terminating the performance measurement in case the measurement coverage meets a coverage criterion, the method being characterized in that said step of identifying (S2) is after measuring a channel gain on a link between a test antenna in the reverberation chamber and the DUT across the frequency band , wherein the at least one measurement sub-band complies with a predetermined gain flatness criterion, wherein the gain flatness criterion comprises a measure of gain difference (S21) across the measurement sub-band. generating (S1) a fading scenario by the reverberation chamber , identifying (S2) at least one measurement sub-band comprised in the frequency band , measuring (S3) performance of the at least one DUT in the at least one identified measurement sub-band, thereby generating at least one performance measurement result, accumulating (S4) the at least one performance measurement result, and determining (S5) measurement coverage and terminating the performance measurement in case the measurement coverage meets a coverage criterion, the method being characterized in that said step of identifying (S2) is after measuring a channel gain on a link between a test antenna in the reverberation chamber and the DUT across the frequency band , wherein the at least one measurement sub-band complies with a predetermined gain flatness criterion, wherein the gain flatness criterion comprises a measure of gain difference (S21) across the measurement sub-band.
An inverter device (DO) intended to convert a DC voltage into one phase of an AC voltage at a predetermined frequency, the inverter device (DO) comprising a single-phase inverter (O 1 , O 2 , O 3 ) able to deliver the phase, the single-phase inverter comprising a toric output inductor, the inverter device comprising a support (S) radially surrounding a cooling channel (CA) extending longitudinally along an axis x and in which a cooling liquid is intended to flow along the axis x, the toric inductor being mounted on the support (S) so as to radially surround the cooling channel (CA) so as to be able to be cooled by the cooling liquid when the latter flows in the cooling channel (CA), the inverter device (DO) comprising electronic components mounted on the support around the cooling channel so as to be able to be cooled by the cooling liquid when the latter flows in the cooling channel (CA), the support (S) comprising a solid tubular support radially defining the cooling channel (CA), at least a sub-assembly of the electronic components mounted on the support (S) around the cooling channel (CA) so as to be able to be cooled by the cooling liquid when the latter flows in the cooling channel (CA) bearing on a radial surface of the solid tubular support, the tubular support comprising a tubular base section (EB1) with the axis x and a plate (P1) extending in a transverse plane perpendicular to the axis x, the plate (P1) being adjacent to the tubular base section (EB1) along the axis x, the tubular base section (EB1) and the plane (P1) surrounding and radially defining the individual portion of the cooling channel (CA).
A mouse comprising at an endogenous H-2D locus a nucleotide sequence encoding a chimeric human/mouse MHC I polypeptide, wherein the chimeric polypeptide comprises α1, α2, and α3 domains of a human HLA-B27 polypeptide, and transmembrane and cytoplasmic domains of a mouse H-2D polypeptide; and wherein the mouse expresses the chimeric polypeptide.
A non-pneumatic tire comprising: an attachment body attached to an axle; an exterior body which is provided on the attachment body ; a ring-shaped body which surrounds the exterior body from the outside in a tire radial direction; and coupling members which displaceably couple the exterior body to the ring-shaped body , wherein a plurality of coupling members are arranged in a tire circumferential direction and include elastic coupling plates whose opposite ends are respectively coupled to the exterior body and the ring-shaped body , and the exterior body , the ring-shaped body , and the plurality of coupling members are integrally formed of a synthetic resin material, characterised in that : a bending rigidity EI1 of the elastic coupling plates represented by E1 × W1 × t1 3 /12 when an average thickness, averaged in the tire circumferential direction is t1 (mm), an average width in a tire width direction is W1 (mm), and a Young's modulus is E1 (MPa) is smaller than a bending rigidity EI2 of the ring-shaped body represented by E2 × W2 × t2 3 /12 when an average thickness in the tire radial direction is t2 (mm), an average width in the tire width direction is W2 (mm), and a Young's modulus is E2 (MPa). an attachment body attached to an axle; an exterior body which is provided on the attachment body ; a ring-shaped body which surrounds the exterior body from the outside in a tire radial direction; and coupling members which displaceably couple the exterior body to the ring-shaped body , wherein a plurality of coupling members are arranged in a tire circumferential direction and include elastic coupling plates whose opposite ends are respectively coupled to the exterior body and the ring-shaped body , and the exterior body , the ring-shaped body , and the plurality of coupling members are integrally formed of a synthetic resin material, characterised in that : a bending rigidity EI1 of the elastic coupling plates represented by E1 × W1 × t1 3 /12 when an average thickness, averaged in the tire circumferential direction is t1 (mm), an average width in a tire width direction is W1 (mm), and a Young's modulus is E1 (MPa) is smaller than a bending rigidity EI2 of the ring-shaped body represented by E2 × W2 × t2 3 /12 when an average thickness in the tire radial direction is t2 (mm), an average width in the tire width direction is W2 (mm), and a Young's modulus is E2 (MPa).