mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining placement positions for transducer arrays (504; 601, 602, 603, 604) on a subject's body for applying tumor treating fields, comprising: determining, based on two-dimensional image data associated with a portion of a subject's body, one or more landmarks and one or more skin surface conditions ; determining a representation of the one or more landmarks and the one or more skin surface conditions in three-dimensional space based on the one or more landmarks and the one or more skin surface conditions determined from the 2D image data; determining, based on the representation of the one or more landmarks and the one or more skin surface conditions in the 3D space , a plurality of placement positions for one or more of the transducer arrays (504; 601, 602, 603, 604) on the subject's body for applying tumor treating fields; determining, based on the one or more skin surface conditions in the 3D space , one or more recommended placement positions of the plurality of placement positions for the one or more of the transducer arrays (504; 601, 602, 603, 604); and outputting an indication of the one or more recommended placement positions for the one or more of the transducer arrays (504; 601, 602, 603, 604). determining, based on two-dimensional image data associated with a portion of a subject's body, one or more landmarks and one or more skin surface conditions ; determining a representation of the one or more landmarks and the one or more skin surface conditions in three-dimensional space based on the one or more landmarks and the one or more skin surface conditions determined from the 2D image data; determining, based on the representation of the one or more landmarks and the one or more skin surface conditions in the 3D space , a plurality of placement positions for one or more of the transducer arrays (504; 601, 602, 603, 604) on the subject's body for applying tumor treating fields; determining, based on the one or more skin surface conditions in the 3D space , one or more recommended placement positions of the plurality of placement positions for the one or more of the transducer arrays (504; 601, 602, 603, 604); and outputting an indication of the one or more recommended placement positions for the one or more of the transducer arrays (504; 601, 602, 603, 604).
A spunbond nonwoven fabric comprising a first surface and a second surface and a visually discernible pattern of three-dimensional features on one of the first or second surface , each of the three-dimensional features defining a microzone comprising a first region and a second region, the first and second regions having a difference in values for: thickness, basis weight, and volumetric density, and wherein the first surface has a TS7 value of less than 15 dB V 2 rms, as measured by the Emtec Test Method described herein. thickness, basis weight, and volumetric density, and wherein the first surface has a TS7 value of less than 15 dB V 2 rms, as measured by the Emtec Test Method described herein.
A sensor for measuring at least one physical or chemical parameter of a cartridge filled with a liquid substance and comprising a tubular-shaped barrel sealed by a piston slidably displaceable inside the cartridge , wherein the piston exhibits an electric susceptibility or permittivity being distinguishable from the electric susceptibility of the liquid substance inside the cartridge , the sensor comprising: - a planar flexible foil attachable to an outer circumference of the barrel of the cartridge , and - at least a first and a second measuring electrode arranged on said foil and configured as electrical capacity measuring electrodes to measure an electrical capacitance between the first and second capacity measuring electrodes when wrapped around the cartridge, which electrical capacitance depends on an axial position of the piston , characterized by - at least a first and a second contact electrode arranged on said foil , - wherein the first contact electrode is connected to the first measuring electrode and wherein the second contact electrode is connected to the second measuring electrode , - wherein the first and second contact electrodes are configured to provide a wired energy supply to the first and second measuring electrodes , and - wherein the first and second contact electrodes are configured to provide a wired transfer of electrical signals obtained or generated by at least one of the first and second measuring electrodes to a processor or transceiver . - a planar flexible foil attachable to an outer circumference of the barrel of the cartridge , and - at least a first and a second measuring electrode arranged on said foil and configured as electrical capacity measuring electrodes to measure an electrical capacitance between the first and second capacity measuring electrodes when wrapped around the cartridge, which electrical capacitance depends on an axial position of the piston , characterized by - at least a first and a second contact electrode arranged on said foil , - wherein the first contact electrode is connected to the first measuring electrode and wherein the second contact electrode is connected to the second measuring electrode , - wherein the first and second contact electrodes are configured to provide a wired energy supply to the first and second measuring electrodes , and - wherein the first and second contact electrodes are configured to provide a wired transfer of electrical signals obtained or generated by at least one of the first and second measuring electrodes to a processor or transceiver .
A method for analysis of multi-parameter data to identify one or more phenotypes, the method comprising: obtaining multi-parameter data sets that are representative of respective images of a plurality of samples; obtaining intra-sample distance measurements based on a comparison of distributions of the same parameter within samples under different conditions; obtaining inter-sample distance measurements based on a comparison of distributions of different parameters within a sample under a given condition; determining, based on both the intra-sample and inter-sample distance measurements, correlated parameters in the respective multi-parameter data sets; creating an analysis parameter set with at least one of the correlated parameters removed; and applying the analysis parameter set to identify one or more phenotypes from the multi-parameter data sets. obtaining multi-parameter data sets that are representative of respective images of a plurality of samples; obtaining intra-sample distance measurements based on a comparison of distributions of the same parameter within samples under different conditions; obtaining inter-sample distance measurements based on a comparison of distributions of different parameters within a sample under a given condition; determining, based on both the intra-sample and inter-sample distance measurements, correlated parameters in the respective multi-parameter data sets; creating an analysis parameter set with at least one of the correlated parameters removed; and applying the analysis parameter set to identify one or more phenotypes from the multi-parameter data sets.
Metal complex comprising at least one ligand having the general formula (I) wherein the symbols have the following meanings: Y 5 , Z 4 independently from each other CD, CR 1 , CH, N; X 1 N; X 2 , X 3 , Y 1 , Y 2 , Y 3 independently from each other N or C; X 5 CD; X4 CD or CR 1 ; Y 4 , Y 6 independently from each other CD, CR 1 , CH, N; wherein Y 4 or Y 6 in case of m = 0 further can mean S, O or NR 1 ; Z 1 , Z 2 , Z 3 independently from each other CD, CR 1 , CH, N; wherein Z 1 , Z 2 or Z 3 in case of n = 0 further can mean S, O or NR 1 ; R 1 independently from each other unsubstituted or substituted alkyl, unsubstituted or substituted cycloalkyl, unsubstituted or substituted heterocycloalkyl, unsubstituted or substituted aryl, unsubstituted or substituted heteroaryl, unsubstituted or substituted alkenyl, unsubstituted or substituted cycloalkenyl, unsubstituted or substituted alkinyl, SiR 2 3 , halogen, a substituent with donor or acceptor effect, wherein in the case that R 1 is bound to an N atom, R 1 independently from each other means unsubstituted or substituted alkyl or unsubstituted or substituted aryl or unsubstituted or substituted heteroaryl, wherein two arbitrary substituents R 1 can further together form an alkylene or arylene bridge; R 2 independently from each other unsubstituted or substituted alkyl or unsubstituted or substituted aryl or unsubstituted or substituted heteroaryl; m, n independently from each other 0 or 1, wherein the groups Z 4 resp. Y 5 are absent for n resp. m = 0. Y 5 , Z 4 independently from each other CD, CR 1 , CH, N; X 1 N; X 2 , X 3 , Y 1 , Y 2 , Y 3 independently from each other N or C; X 5 CD; X4 CD or CR 1 ; Y 4 , Y 6 independently from each other CD, CR 1 , CH, N; wherein Y 4 or Y 6 in case of m = 0 further can mean S, O or NR 1 ; Z 1 , Z 2 , Z 3 independently from each other CD, CR 1 , CH, N; wherein Z 1 , Z 2 or Z 3 in case of n = 0 further can mean S, O or NR 1 ; R 1 independently from each other unsubstituted or substituted alkyl, unsubstituted or substituted cycloalkyl, unsubstituted or substituted heterocycloalkyl, unsubstituted or substituted aryl, unsubstituted or substituted heteroaryl, unsubstituted or substituted alkenyl, unsubstituted or substituted cycloalkenyl, unsubstituted or substituted alkinyl, SiR 2 3 , halogen, a substituent with donor or acceptor effect, wherein in the case that R 1 is bound to an N atom, R 1 independently from each other means unsubstituted or substituted alkyl or unsubstituted or substituted aryl or unsubstituted or substituted heteroaryl, wherein two arbitrary substituents R 1 can further together form an alkylene or arylene bridge; R 2 independently from each other unsubstituted or substituted alkyl or unsubstituted or substituted aryl or unsubstituted or substituted heteroaryl; m, n independently from each other 0 or 1, wherein the groups Z 4 resp. Y 5 are absent for n resp. m = 0.
Magnet system for performing 2-field NMR experiments, comprising - a superconducting main field magnet suitable for generating a first magnetic field in a first sample volume , - a superconducting additional field magnet suitable for generating a second magnetic field in a second sample volume , the first magnetic field being stronger than the second magnetic field, and - a cryostat having a cooled main coil container which contains the main field magnet , having an evacuated room temperature (= RT) covering which contains the main coil container , and having a room temperature (= RT) bore which extends through the main field magnet and through the additional field magnet and contains the first sample volume and the second sample volume , characterized in that the magnet system comprises a cooled additional coil container which is surrounded by a vacuum , contains the additional field magnet and is spaced apart from the main coil container , in that the RT covering has a flange connection , the RT bore extending through a flange opening of the flange connection , in that a front end of the additional coil container protrudes through the flange opening into the RT covering such that the additional field magnet also at least partly protrudes through the flange opening into the RT covering , and in that there is a closure structure which is installed on the flange connection of the RT covering and seals the RT covering between the flange connection and the RT bore . - a superconducting main field magnet suitable for generating a first magnetic field in a first sample volume , - a superconducting additional field magnet suitable for generating a second magnetic field in a second sample volume , the first magnetic field being stronger than the second magnetic field, and - a cryostat having a cooled main coil container which contains the main field magnet , having an evacuated room temperature (= RT) covering which contains the main coil container , and having a room temperature (= RT) bore which extends through the main field magnet and through the additional field magnet and contains the first sample volume and the second sample volume , in that the magnet system comprises a cooled additional coil container which is surrounded by a vacuum , contains the additional field magnet and is spaced apart from the main coil container , in that the RT covering has a flange connection , the RT bore extending through a flange opening of the flange connection , in that a front end of the additional coil container protrudes through the flange opening into the RT covering such that the additional field magnet also at least partly protrudes through the flange opening into the RT covering , and in that there is a closure structure which is installed on the flange connection of the RT covering and seals the RT covering between the flange connection and the RT bore .
A pretreatment liquid for aqueous pigment inkjet ink printing, the pretreatment liquid comprising: polyolefin resin particles (A), a flocculant (B), an acetylene diol-based surfactant and water; wherein a softening temperature of the polyolefin resin particles (A) is from 50 to 100°C; and the flocculant (B) contains a polyvalent metal salt having the solubility of 5 to 55 g/100 mL H 2 O at 25°C. polyolefin resin particles (A), a flocculant (B), an acetylene diol-based surfactant and water; wherein a softening temperature of the polyolefin resin particles (A) is from 50 to 100°C; and the flocculant (B) contains a polyvalent metal salt having the solubility of 5 to 55 g/100 mL H 2 O at 25°C.
A method for manufacturing a catheter member having a lumen, the method comprising: winding a sacrificial coil over a mandrel in a first direction; winding a reinforcement coil over the sacrificial coil in a second direction; laminating a polymer tube over the mandrel , the sacrificial coil and the reinforcement coil ; removing the mandrel ; removing the sacrificial coil ; and filling at least one groove in the polymer tube created by removing the sacrificial coil with polymer from the polymer tube . winding a sacrificial coil over a mandrel in a first direction; winding a reinforcement coil over the sacrificial coil in a second direction; laminating a polymer tube over the mandrel , the sacrificial coil and the reinforcement coil ; removing the mandrel ; removing the sacrificial coil ; and filling at least one groove in the polymer tube created by removing the sacrificial coil with polymer from the polymer tube .
Method for filling or drawing off a pressurised gas tank , in particular fuel such as hydrogen gas, the tank being delimited by a wall of general cylindrical shape having a longitudinal axis and determined and known dimensions and thermophysical properties, the method comprising a regulation of the flow of the gas stream introduced or, respectively of the gas drawn off, and/or of the temperature of said gas introduced, to avoid the tank reaching a determined high temperature threshold or a determined low temperature threshold, the method being characterised in that it comprises a step of estimating in real time by calculating at least one temperature of the tank from among: the average temperature of the wall of the tank Twall,average(r,t) according to the time (t) and r being the radius coordinate from the longitudinal axis of the tank, the maximum temperature reached by the wall of the tank Twall,max(t) according to the time, the minimum temperature reached by the wall of the tank Twall,min(t) according to the time and in that , the regulation of the flow of the gas stream or of the temperature of said gas is achieved according to said temperature of tank calculated.
A method for preparing 3-hydroxy-3-methylbutyric acid (HMB) or salts thereof from tert -butanol and carbon monoxide, wherein tert -butanol is reacted in an aqueous mixture with carbon monoxide under electrolytic conditions.
A communication method of a secondary Base Station , BS, comprising: transmitting, to a User Equipment, UE, a plurality of Packet Data Convergence Protocol, PDCP, Protocol Data Units, PDUs, received from a master BS ; transmitting to the master BS a downlink data transmission state message indicating PDCP PDUs that have been successfully transmitted by the secondary BS to the UE among the plurality of PDCP PDUs received from the master BS ; and storing in the secondary BS respective sequence numbers of the PDCP PDUs that have been successfully transmitted to the UE. transmitting, to a User Equipment, UE, a plurality of Packet Data Convergence Protocol, PDCP, Protocol Data Units, PDUs, received from a master BS ; transmitting to the master BS a downlink data transmission state message indicating PDCP PDUs that have been successfully transmitted by the secondary BS to the UE among the plurality of PDCP PDUs received from the master BS ; and storing in the secondary BS respective sequence numbers of the PDCP PDUs that have been successfully transmitted to the UE.
A method of generating encryption keys, comprising: configuring a semiconductor device having circuitry with a secret key value, the secret key value not accessible to software running on the device; configuring one-time electrically programmable semiconductor memory bits with initial values, each one-time electrically programmable semiconductor memory bit being limited to one change in value from a respective initial value; receiving a first lifecycle advance value from lifecycle advance bits stored by a first subset of the one-time electrically programmable semiconductor memory bits; receiving a first lifecycle rollback value from lifecycle rollback bits stored by a second subset of the one-time electrically programmable semiconductor memory bits; generating, using a lifecycle state generating process, a first lifecycle state value from the first lifecycle advance value and the first lifecycle roll- back value; receiving a first personality value from personality bits stored by a third sub- set of the one-time electrically programmable semiconductor memory bits; using a one-way processing function, generating a first key split value based on the secret key value, the first personality value, and the first lifecycle state value; and, generating, from the first key split value, a first encryption key. configuring a semiconductor device having circuitry with a secret key value, the secret key value not accessible to software running on the device; configuring one-time electrically programmable semiconductor memory bits with initial values, each one-time electrically programmable semiconductor memory bit being limited to one change in value from a respective initial value; receiving a first lifecycle advance value from lifecycle advance bits stored by a first subset of the one-time electrically programmable semiconductor memory bits; receiving a first lifecycle rollback value from lifecycle rollback bits stored by a second subset of the one-time electrically programmable semiconductor memory bits; generating, using a lifecycle state generating process, a first lifecycle state value from the first lifecycle advance value and the first lifecycle roll- back value; receiving a first personality value from personality bits stored by a third sub- set of the one-time electrically programmable semiconductor memory bits; using a one-way processing function, generating a first key split value based on the secret key value, the first personality value, and the first lifecycle state value; and, generating, from the first key split value, a first encryption key.
A method for fabricating a solar cell array, comprising: attaching a plurality of solar cells to a substrate , wherein: each of the solar cells has at least one cropped corner , the cropped corners defining at least one corner region ; the substrate includes one or more insulating layers and one or more conductive layers patterned as conductors , which are embedded within the substrate , for making electrical connections with the solar cells , wherein first ones of the conductors are series connections for the solar cells and second ones of the conductors are circuit termination lines for the solar cells ; the substrate includes one or more decision points for electrical continuity to the conductors , for customizing circuits of the solar cells ; and at least some of the second ones of the conductors are connected together at their crossing points, and in the at least one corner region the second ones of the conductors cross the first ones of the conductors where the first ones and second ones of the conductors are connected. each of the solar cells has at least one cropped corner , the cropped corners defining at least one corner region ; the substrate includes one or more insulating layers and one or more conductive layers patterned as conductors , which are embedded within the substrate , for making electrical connections with the solar cells , wherein first ones of the conductors are series connections for the solar cells and second ones of the conductors are circuit termination lines for the solar cells ; the substrate includes one or more decision points for electrical continuity to the conductors , for customizing circuits of the solar cells ; and at least some of the second ones of the conductors are connected together at their crossing points, and in the at least one corner region the second ones of the conductors cross the first ones of the conductors where the first ones and second ones of the conductors are connected.
Method of manufacture of a micro-mechanical piece, in particular of a piece from mechanical watchmaking, by etching of flanks between a lower face of the micro-mechanical piece and an upper face of the micro-mechanical piece, starting from a substrate, the flanks comprising a contact surface for the transfer of torque and/or of forces between the micro-mechanical piece and another piece, the method of manufacture comprising at least a first step by performed by deep reactive ion etching (DRIE) with the parameters adjusted in order to achieve an etching producing substantially vertical flanks or with the parameters adjusted in a continuous way in order to achieve an etching producing flanks with a convex curvature, and at least a second step performed by deep reactive ion etching (DRIE) with the parameters adjusted in order to achieve an etching producing flanks inclined at a predetermined angle with respect to the vertical or with the parameters adjusted in a continuous way in order to achieve an etching producing flanks with a convex curvature, and the first and the second step are achieved in a continuous way, without interruption of the deep reactive ion etching. a first step by performed by deep reactive ion etching (DRIE) with the parameters adjusted in order to achieve an etching producing substantially vertical flanks or with the parameters adjusted in a continuous way in order to achieve an etching producing flanks with a convex curvature, and at least a second step performed by deep reactive ion etching (DRIE) with the parameters adjusted in order to achieve an etching producing flanks inclined at a predetermined angle with respect to the vertical or with the parameters adjusted in a continuous way in order to achieve an etching producing flanks with a convex curvature, and the first and the second step are achieved in a continuous way, without interruption of the deep reactive ion etching.