mhurhangee/patent-ind-claim-en huggingface dataset:
A method for simultaneous multicolor nonlinear imaging of multiple chromophores of different types in a sample, the method comprising: a) Emitting ultrashort broadband light pulses from a few-cycle laser system for the excitation of the multiple chromophores; b) Focusing the ultrashort broadband light pulses in the sample plane of the sample; c) Controlling the focused ultrashort broadband light pulses temporal duration in the sample plane; d) Preventing the ultrashort broadband light pulses from directly reaching the detection system; e) Measuring the nonlinear signals generated in the sample plane; f) Scanning the excitation and measurement on individual points in one dimension, "1D", or point-by-point in the sample plane in two dimensions, "2D", or point-by-point across focal planes in three dimensions, "3D" ; g) Synchronizing the measurement of the non-linear signals generated in the sample plane to a photon counting detector in order to acquire time resolved nonlinear signal information on photon arrival time histograms from the sample plane; h) Processing the time resolved nonlinear signal information; i) Analysing the time resolved nonlinear signal information for determination of decay parameters associated to the photon arrival time histograms in the individual points in one dimension, "1D", or point-by-point in the sample plane in two dimensions, "2D", or point-by-point across focal planes in three dimensions, "3D". a) Emitting ultrashort broadband light pulses from a few-cycle laser system for the excitation of the multiple chromophores; b) Focusing the ultrashort broadband light pulses in the sample plane of the sample; c) Controlling the focused ultrashort broadband light pulses temporal duration in the sample plane; d) Preventing the ultrashort broadband light pulses from directly reaching the detection system; e) Measuring the nonlinear signals generated in the sample plane; f) Scanning the excitation and measurement on individual points in one dimension, "1D", or point-by-point in the sample plane in two dimensions, "2D", or point-by-point across focal planes in three dimensions, "3D" ; g) Synchronizing the measurement of the non-linear signals generated in the sample plane to a photon counting detector in order to acquire time resolved nonlinear signal information on photon arrival time histograms from the sample plane; h) Processing the time resolved nonlinear signal information; i) Analysing the time resolved nonlinear signal information for determination of decay parameters associated to the photon arrival time histograms in the individual points in one dimension, "1D", or point-by-point in the sample plane in two dimensions, "2D", or point-by-point across focal planes in three dimensions, "3D".
A method for a leading vehicle of a group of vehicles , the method comprising: Determining a potential intruder vehicle within the group of vehicles , wherein the potential intruder vehicle is a vehicle that is not part of the group of vehicles and that is located in such proximity to the group of vehicles that its presence negatively impacts a desired maneuver of this group of vehicles ; Determining , whether the potential intruder vehicle is a cooperative intruder by transmitting an intruder probing message to the potential intruder vehicle , wherein the intruder probing message requests the intruder vehicle to provide information related to a presence of the potential intruder vehicle among the group of vehicles , wherein the potential intruder vehicle is determined to be a cooperative intruder if a cooperation indication is received from the potential intruder vehicle in response to the intruder probing message, wherein the cooperation indication indicates a willingness of the potential intruder vehicle to cooperate; and Removing the potential intruder vehicle from the group of vehicles based on whether the potential intruder vehicle is a cooperative intruder, wherein the potential intruder vehicle is removed from the group of vehicles by transmitting a driving instruction to the potential intruder vehicle if the potential intruder vehicle is a cooperative intruder, and wherein the potential intruder is removed from the group of vehicles by transmitting group driving instructions to the group of vehicles if the potential intruder vehicle is an uncooperative intruder. Determining a potential intruder vehicle within the group of vehicles , wherein the potential intruder vehicle is a vehicle that is not part of the group of vehicles and that is located in such proximity to the group of vehicles that its presence negatively impacts a desired maneuver of this group of vehicles ; Determining , whether the potential intruder vehicle is a cooperative intruder by transmitting an intruder probing message to the potential intruder vehicle , wherein the intruder probing message requests the intruder vehicle to provide information related to a presence of the potential intruder vehicle among the group of vehicles , wherein the potential intruder vehicle is determined to be a cooperative intruder if a cooperation indication is received from the potential intruder vehicle in response to the intruder probing message, wherein the cooperation indication indicates a willingness of the potential intruder vehicle to cooperate; and Removing the potential intruder vehicle from the group of vehicles based on whether the potential intruder vehicle is a cooperative intruder, wherein the potential intruder vehicle is removed from the group of vehicles by transmitting a driving instruction to the potential intruder vehicle if the potential intruder vehicle is a cooperative intruder, and wherein the potential intruder is removed from the group of vehicles by transmitting group driving instructions to the group of vehicles if the potential intruder vehicle is an uncooperative intruder.
A lithium selenium secondary battery, comprising: a selenium carbon composite material, the selenium carbon composite material prepared by a method comprising: (a) carbonizing an alkali metal organic salt or an alkaline earth metal organic salt at a temperature of 600°C to 1000°C, washing with an acid, and drying to obtain a two-dimensional carbon nanomaterial; (b) mixing the two-dimensional carbon material obtained in step (a) with an organic solution of selenium, heating the mixture to evaporate the solvent, and then conducting a multistage heat ramping and soaking process to form the two-dimensional selenium carbon composite material as the cathode material; a lithium-containing anode; a separator; and an electrolyte. a selenium carbon composite material, the selenium carbon composite material prepared by a method comprising: (a) carbonizing an alkali metal organic salt or an alkaline earth metal organic salt at a temperature of 600°C to 1000°C, washing with an acid, and drying to obtain a two-dimensional carbon nanomaterial; (b) mixing the two-dimensional carbon material obtained in step (a) with an organic solution of selenium, heating the mixture to evaporate the solvent, and then conducting a multistage heat ramping and soaking process to form the two-dimensional selenium carbon composite material as the cathode material; (a) carbonizing an alkali metal organic salt or an alkaline earth metal organic salt at a temperature of 600°C to 1000°C, washing with an acid, and drying to obtain a two-dimensional carbon nanomaterial; (b) mixing the two-dimensional carbon material obtained in step (a) with an organic solution of selenium, heating the mixture to evaporate the solvent, and then conducting a multistage heat ramping and soaking process to form the two-dimensional selenium carbon composite material as the cathode material; a lithium-containing anode; a separator; and an electrolyte.
A method for controlling (E) a fleet of electrical equipment comprising a plurality of domestic hot water production tanks , the method (E) comprising the steps of: - acquiring (E1) the load curve of the fleet at a given time step (t), over a given period (T), - extracting (E2) the load curve corresponding to the plurality of tanks from the load curve of the fleet , - extracting (E3) the load curve corresponding to each tank from the extracted load curve of the plurality of tanks , and - controlling (E4) the set of tanks from the extracted load curves corresponding to each tank . - acquiring (E1) the load curve of the fleet at a given time step (t), over a given period (T), - extracting (E2) the load curve corresponding to the plurality of tanks from the load curve of the fleet , - extracting (E3) the load curve corresponding to each tank from the extracted load curve of the plurality of tanks , and - controlling (E4) the set of tanks from the extracted load curves corresponding to each tank .
Gear pump for conveying a fluid with a conveying unit having at least two gear wheels (4.1, 4.2) and a drive unit driving the gear wheels (4.1, 4. 2), which are detachably connected to one another via connecting elements which can be actuated without tools, characterized in that the connecting elements are designed as latching elements and form a bayonet connection which has an anti-rotation lock , the anti-rotation lock having at least one resiliently designed securing hook (10.1) which interacts in a form-fit manner with at least one corresponding securing recess (10.3).
A system for use on or near train tracks, comprising: a first portable device that is battery powered, the first portable device including a first wireless transceiver configured to transmit and receive signals using a chirp spread spectrum; a second portable device that is battery powered, the second portable device including a second wireless transceiver device configured to transmit and receive signals using the chirp spread spectrum, wherein the first portable device is configured to communicate with the second portable device to determine a distance between the first and second portable devices using ranging estimation based on chirp spread spectrum modulation scheme pulses, and the first portable device is configured to generate an alert if the determined distance is above a threshold distance; wherein the alert is automatically generated if the measured distance is above the threshold distance; and where the alert is at least one of visible, audible and haptic. a first portable device that is battery powered, the first portable device including a first wireless transceiver configured to transmit and receive signals using a chirp spread spectrum; a second portable device that is battery powered, the second portable device including a second wireless transceiver device configured to transmit and receive signals using the chirp spread spectrum, wherein the first portable device is configured to communicate with the second portable device to determine a distance between the first and second portable devices using ranging estimation based on chirp spread spectrum modulation scheme pulses, and the first portable device is configured to generate an alert if the determined distance is above a threshold distance; wherein the alert is automatically generated if the measured distance is above the threshold distance; and where the alert is at least one of visible, audible and haptic.
An elongate medical device (12; 12a-12d) comprising an assembly (30; 30') of multiple temperature sensors, the assembly (30; 30') comprising: a first metal material comprising a plurality of junctions (39, 39a; J1-J4); and a plurality of conductors (38; 38') comprising a second metal material, each conductor connected to the first metal material at one of the plurality of junctions (39, 39a; J1-J4); characterized by a common conductor (40; 40') that is physically paired with at least one of the plurality of conductors (38; 38') at a corresponding common conductor junction such that the common conductor (40; 40') forms a thermocouple pair with each of the plurality of conductors (38; 38'). a first metal material comprising a plurality of junctions (39, 39a; J1-J4); and a plurality of conductors (38; 38') comprising a second metal material, each conductor connected to the first metal material at one of the plurality of junctions (39, 39a; J1-J4); characterized by a common conductor (40; 40') that is physically paired with at least one of the plurality of conductors (38; 38') at a corresponding common conductor junction such that the common conductor (40; 40') forms a thermocouple pair with each of the plurality of conductors (38; 38').
An x-ray collimator comprising at least three essentially non-overlapping plates adapted to be mounted in a plane generally parallel to a detector input surface plane, said plates forming a fully transparent gap therebetween, wherein each plate comprises a first edge forming a side of the gap and a second edge different from the first edge being in contact with said first edge of a neighboring plate; wherein each plate may be defined as a first plate, wherein said first plate is configured to move in a first direction relative to said first plate's first edge, and a neighboring plate to said first plate is configured to move in a second direction relative to said neighboring plate's first edge; and wherein the location of the side of the gap formed by a first edge of at least one plate of said at least three plates and the location of the side of the gap formed by a first edge of at least one other plate of said at least three plates can be changed independently of each other.
Method for converting in a converting device digitally a substrate comprising: • a step of converting digitally the substrate in a converting station of the converting device, said substrate being moved through the converting station by means of a conveying unit; • a step of controlling the converting station with a controlling means, a control unit for example; • a step of recording in the controlling means a source digital file FN1 representative of the substrate; • a step of recording in the controlling means a digital file FN3 representative of the digital conversion to be applied to the substrate; • a step of analysing the substrate by means of a device X in order to attribute thereto digital values, said device X being located in the converting device; • a step of recording in the controlling means a digital file FN2 representative of the substrate analysed by means of the device X and of acquiring corresponding digital data; characterized in that the method comprises: • a step of comparing and recording in the controlling means differences between the file FN1 and the file FN2; • a step of correcting, by means of a correcting means forming part of the controlling means, the file FN3 with the differences between the file FN1 and the file FN2; and • a step of recording in the controlling means a digital file FN3-CORR delivered by the means for correcting the file FN3, the step of converting digitally the substrate in a converting station being the last step, said last step being controlled by the controlling means by means of the file FN3-CORR, and a distance dE that corresponds to the distance between the point of the substrate that is converted in the converting station at the time "t" and the upstream point of the acquisition and analysis zone, at the same time "t", of the device X is larger than 1 mm. • a step of converting digitally the substrate in a converting station of the converting device, said substrate being moved through the converting station by means of a conveying unit; • a step of controlling the converting station with a controlling means, a control unit for example; • a step of recording in the controlling means a source digital file FN1 representative of the substrate; • a step of recording in the controlling means a digital file FN3 representative of the digital conversion to be applied to the substrate; • a step of analysing the substrate by means of a device X in order to attribute thereto digital values, said device X being located in the converting device; • a step of recording in the controlling means a digital file FN2 representative of the substrate analysed by means of the device X and of acquiring corresponding digital data; • a step of comparing and recording in the controlling means differences between the file FN1 and the file FN2; • a step of correcting, by means of a correcting means forming part of the controlling means, the file FN3 with the differences between the file FN1 and the file FN2; and • a step of recording in the controlling means a digital file FN3-CORR delivered by the means for correcting the file FN3,
A composition comprising a dextran ether compound, wherein the dextran ether compound comprises: (i) 87-93 wt% glucose linked at positions 1 and 6; (ii) 0.1-1.2 wt% glucose linked at positions 1 and 3; (iii) 0.1-0.7 wt% glucose linked at positions 1 and 4; (iv) 7.7-8.6 wt% glucose linked at positions 1, 3 and 6; (v) 0.4-1.7 wt% glucose linked at: (a) positions 1, 2 and 6, or (b) positions 1, 4 and 6; and (vi) a degree of substitution (DoS) with at least one organic group of 0.0025 to 3.0; wherein the weight-average molecular weight (Mw) of said dextran ether compound is 50-200 million Daltons. (i) 87-93 wt% glucose linked at positions 1 and 6; (ii) 0.1-1.2 wt% glucose linked at positions 1 and 3; (iii) 0.1-0.7 wt% glucose linked at positions 1 and 4; (iv) 7.7-8.6 wt% glucose linked at positions 1, 3 and 6; (v) 0.4-1.7 wt% glucose linked at: (a) positions 1, 2 and 6, or (b) positions 1, 4 and 6; and (a) positions 1, 2 and 6, or (b) positions 1, 4 and 6; (vi) a degree of substitution (DoS) with at least one organic group of 0.0025 to 3.0;
A solid dispersion comprising and hydroxypropyl methylcellulose acetate succinate (HPMCAS); wherein the weight-by-weight ratio of ARN-509 : HPMCAS in the solid dispersion is in the range from 1 : 1 to 1 : 5. and hydroxypropyl methylcellulose acetate succinate (HPMCAS); wherein the weight-by-weight ratio of ARN-509 : HPMCAS in the solid dispersion is in the range from 1 : 1 to 1 : 5.
An input device comprising: an input rod (P1) capable of forward and rearward movement on the basis of an amount of operation on an operation element; and a cylindrical member fit on an end part of the input rod (P1), wherein the cylindrical member comprises: a rod receiving part provided on one end side in an axial direction and configured to receive the end part of the input rod (PI); and a slit formed over the length of the whole of the cylindrical member in the axial direction, and wherein the cylindrical member can be elastically deformed in a radial direction due to the slit , characterized in that the cylindrical member is made of a resin, the input device further comprises a piston which can be displaced in response to forward and rearward movement of the input rod (P1), and the cylindrical member further comprises a locking part which is formed on the other end side in the axial direction so as to lock an engaging part of the piston , thereby preventing the input rod (P1) from falling off the piston . an input rod (P1) capable of forward and rearward movement on the basis of an amount of operation on an operation element; and a cylindrical member fit on an end part of the input rod (P1), wherein the cylindrical member comprises: a rod receiving part provided on one end side in an axial direction and configured to receive the end part of the input rod (PI); and a slit formed over the length of the whole of the cylindrical member in the axial direction, and wherein the cylindrical member can be elastically deformed in a radial direction due to the slit , characterized in that the cylindrical member is made of a resin, the input device further comprises a piston which can be displaced in response to forward and rearward movement of the input rod (P1), and the cylindrical member further comprises a locking part which is formed on the other end side in the axial direction so as to lock an engaging part of the piston , thereby preventing the input rod (P1) from falling off the piston . a rod receiving part provided on one end side in an axial direction and configured to receive the end part of the input rod (PI); and a slit formed over the length of the whole of the cylindrical member in the axial direction, and wherein the cylindrical member can be elastically deformed in a radial direction due to the slit , characterized in that the cylindrical member is made of a resin, the input device further comprises a piston which can be displaced in response to forward and rearward movement of the input rod (P1), and the cylindrical member further comprises a locking part which is formed on the other end side in the axial direction so as to lock an engaging part of the piston , thereby preventing the input rod (P1) from falling off the piston .
A suitcase comprising a case body , the case body being provided with rolling wheels and a pull rod , wherein a foldable display screen is provided on an outer surface of the case body , the display screen comprises a fixed first display unit and at least one second display unit which is foldable relative to the first display unit , when the display screen is in the folded state, the at least one second display unit is folded on and overlapped with the first display unit , after the at least one second display unit is unfolded relative to the first display unit , the display screen is in the unfolded state, and the display area of the display screen is equal to the sum of the first display unit and the at least one second display unit ; the at least one second display unit is a single one, the second display unit is rotatably connected with a side edge of the first display unit , and in the unfolded state, the second display unit is located at one side of the first display unit ; the display area of the first display unit wholly covers the outer surface of the case body on which the display screen is provided, and the display area of the second display unit is equal to that of the first display unit ; a plurality of support bars are provided on the case body , and each support bar is rotatably connected to the case body , the support bars are configured to rotate outwards from the case body to support the back portion of the unfolded second display unit when the second display unit is in the unfolded state, and configured to rotate back to the case body when the second display unit is in the folded state. the at least one second display unit is a single one, the second display unit is rotatably connected with a side edge of the first display unit , and in the unfolded state, the second display unit is located at one side of the first display unit ; the display area of the first display unit wholly covers the outer surface of the case body on which the display screen is provided, and the display area of the second display unit is equal to that of the first display unit ; a plurality of support bars are provided on the case body , and each support bar is rotatably connected to the case body , the support bars are configured to rotate outwards from the case body to support the back portion of the unfolded second display unit when the second display unit is in the unfolded state, and configured to rotate back to the case body when the second display unit is in the folded state.