mhurhangee/patent-ind-claim-en huggingface dataset:
A method for extracting target components (T) from a liquid sample (S), comprising the following steps: a) mixing the sample (S) comprising the target components (T), a liquid carrier (C), which is immiscible with the sample (S) and which has another mass density than the sample (S), and magnetic particles (M) such that the target components (T) bind to the magnetic particles (M) and arranging the mixture such that the arrangement is stable under the influence of gravity (g); b) generating a magnetic field (B) that moves the magnetic particles (M) to which the target components (T) are bound from the sample (S) into the carrier (C), characterized in that the magnetic particles (M) are non-wetting with respect to the carrier (C). a) mixing the sample (S) comprising the target components (T), a liquid carrier (C), which is immiscible with the sample (S) and which has another mass density than the sample (S), and magnetic particles (M) such that the target components (T) bind to the magnetic particles (M) and arranging the mixture such that the arrangement is stable under the influence of gravity (g); b) generating a magnetic field (B) that moves the magnetic particles (M) to which the target components (T) are bound from the sample (S) into the carrier (C),
A method for manufacturing a lithium ion secondary battery, the lithium ion secondary battery comprising a positive electrode and a negative electrode disposed with a separator sandwiched therebetween and contained together with an electrolytic solution in an outer case including a flexible film, the method comprising: injecting the electrolytic solution into the outer case, and maintaining a battery obtained after injecting the electrolytic solution into the outer case, at a temperature of 35°C or higher and 60°C or lower for 48 hours or longer and shorter than 480 hours, wherein a quantity of dissolved nitrogen in the electrolytic solution in injecting the electrolytic solution into the outer case is 100 μg/mL or less. injecting the electrolytic solution into the outer case, and maintaining a battery obtained after injecting the electrolytic solution into the outer case, at a temperature of 35°C or higher and 60°C or lower for 48 hours or longer and shorter than 480 hours, wherein a quantity of dissolved nitrogen in the electrolytic solution in injecting the electrolytic solution into the outer case is 100 μg/mL or less.
An absorbent article comprising a main body having a liquid-permeable topsheet , a liquid-impermeable backsheet and an absorbent core sandwiched between said topsheet and said backsheet , said main body being arranged along a longitudinal axis (Y1) and a transversal axis (X1) extending in a perpendicular direction in relation to the longitudinal axis (Y1), said main body defining a front portion , a back portion and a crotch portion ; wherein said article comprises a first wing and a second wing extending outwardly from said crotch portion of the main body in opposite directions in an asymmetric manner with reference to the longitudinal axis (Y1), and generally along said transversal axis (X1), said wings being provided with fastening means configured for fastening said wings to a garment when being folded over said main body and towards said longitudinal axis (Y1), characterized in that the first wing comprises a first fastening means and the second wing comprises a second fastening means , wherein said first and second fastening means are offset from each other in the longitudinal direction of the article and said first and second fastening means are also offset from each other in the transversal direction of the article when the wings are folded under the main body in a direction towards the longitudinal axis (Y1).
Method of installation of a mobile device for the maintenance of land, in particular lawns or gardens or agricultural land, even more particularly a mobile device for mowing grass, said installation method comprising a mapping step of a working area for said mobile device , the mapping step of said working area comprising a definition step of at least one contour at least partially delimiting said working area , said definition step of said at least one contour comprising the steps of: i) following an operator by using said mobile device while said operator moves along a predetermined trajectory; ii) recording the path followed by said mobile device during the following step to determine said contour , said contour substantially comprising the positions occupied by said mobile device along said path, wherein said following step is carried out by means of an optical detection system , characterized in that said installation method is based on the recognition of the shape and/or the physiognomy of said operator . i) following an operator by using said mobile device while said operator moves along a predetermined trajectory; ii) recording the path followed by said mobile device during the following step to determine said contour , said contour substantially comprising the positions occupied by said mobile device along said path, wherein said following step is carried out by means of an optical detection system , characterized in that said installation method is based on the recognition of the shape and/or the physiognomy of said operator . wherein said following step is carried out by means of an optical detection system , characterized in that said installation method is based on the recognition of the shape and/or the physiognomy of said operator .
A sensor. (102-1, 102-2, 102-M, 202, 302), comprising: a wireless transmitter configured to generate an electromagnetic wave signal (104-1, 104-2, 104-N, 204); an RF attenuator configured to direct the electromagnetic wave signal (104-1, 104-2, 104-N, 204) in a pre-determined direction; and a controller configured to: receive, from a mobile device in response to the mobile device being in proximity with the pre-determined direction of the directed electromagnetic wave signal (104-1, 104-2, 104-N, 204), a self-test command to execute a communication test; send a communication test signal to a sensor panel in response to the self-test command; receive a communication test response signal from the sensor panel in response to the communication test signal, wherein the communication test response signal indicates whether the sensor (102-1, 102-2, 102-M, 202, 302) has passed the communication test if the communication test response signal from the sensor panel is received by the sensor (102-1, 102-2, 102-M, 202, 302) within a threshold time from sending the communication test signal. a wireless transmitter configured to generate an electromagnetic wave signal (104-1, 104-2, 104-N, 204); an RF attenuator configured to direct the electromagnetic wave signal (104-1, 104-2, 104-N, 204) in a pre-determined direction; and a controller configured to: receive, from a mobile device in response to the mobile device being in proximity with the pre-determined direction of the directed electromagnetic wave signal (104-1, 104-2, 104-N, 204), a self-test command to execute a communication test; send a communication test signal to a sensor panel in response to the self-test command; receive a communication test response signal from the sensor panel in response to the communication test signal, wherein the communication test response signal indicates whether the sensor (102-1, 102-2, 102-M, 202, 302) has passed the communication test if the communication test response signal from the sensor panel is received by the sensor (102-1, 102-2, 102-M, 202, 302) within a threshold time from sending the communication test signal. receive, from a mobile device in response to the mobile device being in proximity with the pre-determined direction of the directed electromagnetic wave signal (104-1, 104-2, 104-N, 204), a self-test command to execute a communication test; send a communication test signal to a sensor panel in response to the self-test command; receive a communication test response signal from the sensor panel in response to the communication test signal, wherein the communication test response signal indicates whether the sensor (102-1, 102-2, 102-M, 202, 302) has passed the communication test if the communication test response signal from the sensor panel is received by the sensor (102-1, 102-2, 102-M, 202, 302) within a threshold time from sending the communication test signal.
A method of manufacturing an artificial turf , the method comprising: - creating fluid polyurethane mass , the creation comprising reacting first and second polyols with an isocyanate, ▪ the first polyol being a polyether polyol and/or a polyester polyol having at least 2 hydroxyl groups per molecule, the second polyol being polybutadiene diol; ▪ the isocyanate comprising isocyanate monomers, isocyanate polymers or isocyanate prepolymers or a mixture thereof, the isocyanate monomers, isocyanate polymers and the isocyanate prepolymers having two or more isocyanate groups per molecule; - incorporating an artificial turf fiber into a carrier such that a first portion of the fiber protrudes to the front side of the carrier and that a second portion of the fiber is located at the back side of the carrier; and - adding the fluid polyurethane mass on the back side of the carrier, the polyurethane mass thereby incorporating at least the second portions of the fiber; and - hardening the fluid polyurethane mass on the back side of the carrier. - creating fluid polyurethane mass , the creation comprising reacting first and second polyols with an isocyanate, ▪ the first polyol being a polyether polyol and/or a polyester polyol having at least 2 hydroxyl groups per molecule, the second polyol being polybutadiene diol; ▪ the isocyanate comprising isocyanate monomers, isocyanate polymers or isocyanate prepolymers or a mixture thereof, the isocyanate monomers, isocyanate polymers and the isocyanate prepolymers having two or more isocyanate groups per molecule; ▪ the first polyol being a polyether polyol and/or a polyester polyol having at least 2 hydroxyl groups per molecule, the second polyol being polybutadiene diol; ▪ the isocyanate comprising isocyanate monomers, isocyanate polymers or isocyanate prepolymers or a mixture thereof, the isocyanate monomers, isocyanate polymers and the isocyanate prepolymers having two or more isocyanate groups per molecule; - incorporating an artificial turf fiber into a carrier such that a first portion of the fiber protrudes to the front side of the carrier and that a second portion of the fiber is located at the back side of the carrier; and - adding the fluid polyurethane mass on the back side of the carrier, the polyurethane mass thereby incorporating at least the second portions of the fiber; and - hardening the fluid polyurethane mass on the back side of the carrier.
Method for monitoring a level meter operating according to the radar principle, wherein the level meter has a bracket housing with a leakage chamber arranged on the process side, a signal conductor for conducting transmitted and/or received signals, a transmitting and receiving unit designed for transmitting and receiving the transmitted or, respectively, received signals, and a control and evaluation unit designed for controlling the transmitting and receiving unit and for evaluating the received signals, wherein the signal conductor is lead out of the inner space of the leakage chamber of the bracket housing through a process-side first opening of the leakage chamber and/or of the bracket housing into the process-side outer space of the bracket housing , wherein the process-side first opening of the leakage chamber and/or of the bracket housing and a second opening of the leakage chamber and/or bracket housing facing the transmitting and receiving unit are each sealed with a first seal or with a second seal , comprising the following method steps: - transmitting a transmitted signal in the form of a pulse along the signal conductor , - receiving a reflected received signal, - relaying the received signal to the control and evaluation unit characterized in, that the frequency spectrum of the received signal is determined and that the monitoring of the level meter is carried out in the frequency domain, wherein at least one monitoring parameter for monitoring the level meter is extracted from the frequency spectrum of the received signal, and that a leakage is detected as a change in the monitoring parameter, wherein the entering of a medium into the leakage chamber affects the frequency spectrum contained in the received signal. - transmitting a transmitted signal in the form of a pulse along the signal conductor , - receiving a reflected received signal, - relaying the received signal to the control and evaluation unit characterized in,
A transmitting device, comprising: processing circuitry configured to: maintain a transmitter packet sequence counter; generate an integrity check value, ICV, ; insert a transmitter packet sequence number according to the transmitter packet sequence counter into a data frame that includes a data packet , the data packet including a payload , wherein the data packet follows a preamble and an interpacket gap, IPG, follows the data packet ; and maintain the transmitter packet sequence counter by incrementing a transmitter packet sequence counter value by one with each data frame transmitted; characterized in that the processing circuitry further configured to insert the ICV into the data frame by reducing the size of the IPG such that a total number of bytes in the data frame is maintained. maintain a transmitter packet sequence counter; generate an integrity check value, ICV, ; insert a transmitter packet sequence number according to the transmitter packet sequence counter into a data frame that includes a data packet , the data packet including a payload , wherein the data packet follows a preamble and an interpacket gap, IPG, follows the data packet ; and maintain the transmitter packet sequence counter by incrementing a transmitter packet sequence counter value by one with each data frame transmitted; characterized in that the processing circuitry further configured to insert the ICV into the data frame by reducing the size of the IPG such that a total number of bytes in the data frame is maintained.
An emergency vision device (2; 36), comprising: a) an enclosed first housing (6; 37; 55) having a first end (8; 38) and a second end (10; 42); b) first and second clear members (12, 14; 44, 48) disposed at the first and second ends (8, 10; 36, 42), respectively; c) the first housing including a plurality of wall panels (16; 58) joined side-to-side, the wall panels (16; 58) being foldable; and characterized in that the emergency vision device comprises: d) a loop of spring wire operably associated with each of at least two of the wall panels (16; 58). a) an enclosed first housing (6; 37; 55) having a first end (8; 38) and a second end (10; 42); b) first and second clear members (12, 14; 44, 48) disposed at the first and second ends (8, 10; 36, 42), respectively; c) the first housing including a plurality of wall panels (16; 58) joined side-to-side, the wall panels (16; 58) being foldable; and characterized in that the emergency vision device comprises: d) a loop of spring wire operably associated with each of at least two of the wall panels (16; 58).
An electromagnetic actuator of the type producing a force due to the current that remains substantially constant over the entirety of its useful travel Y, consisting of at least one stator structure , at least one electrical supply coil , and a moving member , said stator structure having, on the one hand, a central pole running perpendicular to the direction of said travel Y and having a width Y Ci in the direction of the travel and terminating at its end in a width Y C2 that is greater than or equal to the travel Y of the moving member , Y C2 being greater than Y ci , and on the other hand, two lateral poles having widths Y L1 , in the direction of the travel and terminating at their end in a width Y L2 greater than Y L1 , the lateral poles and the central pole being separated by a distance Y G , the moving member that is able to move relative to the stator structure comprising an armature supporting at least two permanent magnets each having a width Y A , the moving member and the stator structure delimiting an air gap E, the coil having a width Y B , characterized in that the width Y L2 of the lateral poles is equal to (2Y L1 +2Y B +Y C1 -2Y G -Y C2 )/2 and less than the width Y C2 of the central pole and in that said permanent magnets are directly adjacent, with no air gap or head gap between the front surfaces of two consecutive magnets, the width Y B of the coil is equal to the width Y A of the magnets in the direction of the travel Y.
A UOE steel pipe characterized by having a steel composition consisting of, in mass percent, C: at least 0.03% and at most 0.07%, Si: at least 0.05% and at most 0.50%, Mn: at least 1.6% and at most 2.2%, P: at most 0.020%, S: at most 0.003%, Cu: at least 0.20% and at most 0.60%, Ni: at least 0.20% and at most 0.80%, Nb: at least 0.005% and at most 0.030%, Ti: at least 0.005% and at most 0.030%, N: at most 0.0070%, Al: at least 0.005% and at most 0.060%, Mo: at most 0.02%, V: at most 0.01%, Cr: at most 0.10%, and a remainder of Fe and impurities wherein, a hardenability index Pcm prescribed by Equation is at most 0.22%, Cu + Cr + Ni is at least 0.4% and at most 1.5%, Nb + Mo + V is at most 0.05%, a yield strength is at least 480 MPa, a yield-tensile ratio is at most 85% in the longitudinal direction, and a Charpy absorbed energy in its heat affected zone at -40° C is at least 40 J, a metallurgical structure includes at least 80% by area of bainite, and a tensile strength in the longitudinal direction is at most 800 MPa. Hardenability index Pcm = C + Si / 30 + Ni / 60 + Mo / 15 + Cr + Mn + Cu / 20 + V / 10 + 5 ⁢ B
A method of monitoring a cockpit of an aircraft , the method comprising: receiving , by one or more controllers , an image depicting an operator manipulated input device located within the cockpit ; determining , by the one or more controllers , an observed state of the operator manipulated input device based on the image ; determining , by the one or more controllers , a sensed state of the operator manipulated input device based on data from a sensor; and determining , by the one or more controllers , a mismatch between the observed and sensed states of the operator manipulated input device ; wherein the operator manipulated input device comprises a throttle input device operable to adjust engine power of a gas turbine engine of the aircraft ; and characterised in that the step of determining the observed state of the operator manipulated input device comprises: converting, by the one or more controllers , the image to an illumination commission (CIE) Lab color space; and comparing, by the one or more controllers , the converted image against at least a first reference image and a second reference image, wherein the first reference image depicts the operator manipulated input device at a first position , and wherein the second reference image depicts the operator manipulated input device at a second position . receiving , by one or more controllers , an image depicting an operator manipulated input device located within the cockpit ; determining , by the one or more controllers , an observed state of the operator manipulated input device based on the image ; determining , by the one or more controllers , a sensed state of the operator manipulated input device based on data from a sensor; and determining , by the one or more controllers , a mismatch between the observed and sensed states of the operator manipulated input device ; wherein the operator manipulated input device comprises a throttle input device operable to adjust engine power of a gas turbine engine of the aircraft ; and characterised in that the step of determining the observed state of the operator manipulated input device comprises: converting, by the one or more controllers , the image to an illumination commission (CIE) Lab color space; and comparing, by the one or more controllers , the converted image against at least a first reference image and a second reference image, wherein the first reference image depicts the operator manipulated input device at a first position , and wherein the second reference image depicts the operator manipulated input device at a second position . converting, by the one or more controllers , the image to an illumination commission (CIE) Lab color space; and comparing, by the one or more controllers , the converted image against at least a first reference image and a second reference image, wherein the first reference image depicts the operator manipulated input device at a first position , and wherein the second reference image depicts the operator manipulated input device at a second position .
A processor-based analysis system for user-controlled, water analysis comprising a sensing device comprising a sensor capable of obtaining data for a plurality of analysis parameters, and sensing device processing means in electronic communication with said sensor for obtaining raw data for a user-selected, water analysis parameter, wherein said sensor is configured or adapted to colorimetric or turbidimetric analysis; a user-interactive visual display device comprising visual display means and comprising processing means in electronic communication with said visual display means, wherein said user-interactive visual display device is at the same site as said sensing device, and said user-interactive visual display device and said sensing device are adapted for two-way wireless data communication at the site; an auxiliary chemical product appropriate for addition to a sample for analysis of said user-selected, water analysis parameter; and a water analysis computer program running on the processing means of said user-interactive visual display device wherein a selected test parameter algorithm is executed by the processing means of said user-interactive visual display device to obtain test result data, the processing means of said user-interactive visual display device being in communication with a database comprising a plurality of test parameter algorithms from which an available test parameter algorithm is selectable, and being in communication with the sensing device for communicating said user-selected, water analysis parameter to said sensing device, and for receiving raw analysis data from said sensing device for processing by a selected test parameter algorithm, and obtaining test result data; wherein said sensing device is a portable photometric instrument, and wherein said user-interactive visual display device further comprises communication means for customizing or updating the test parameter algorithms, and wherein said communication means is capable of data communication with cloud-based data resources, wherein the test parameter algorithms are updatable by said communication means capable of said data communication, and wherein (i) the database is stored in a cloud-based data repository, or (ii) the database is stored on said user-interactive visual display device. (i) the database is stored in a cloud-based data repository, or (ii) the database is stored on said user-interactive visual display device.