mhurhangee/patent-ind-claim-en huggingface dataset:
A voltage control and energy conservation system , comprising: a substation configured to supply electrical power to a plurality of locations ; a plurality of measurers , wherein each measurer is located at one of the plurality of locations and configured to generate data based on a measured component of electrical power received by the measurer ; and a voltage controller configured to receive measurer data from each measurer of a subset of the plurality of measurers , wherein the subset includes more than one and fewer than all of the plurality of measurers , and wherein the subset is selected based on predetermined criteria, wherein the voltage controller is further configured to control a voltage set point of the electrical power supplied by the substation based on the data received from the subset of measurers, characterized in that at least one measurer of the plurality of measurers that is not included in the subset is configured to send data to the voltage controller when the voltage measured by said at least one measurer is determined to be outside of a target voltage band; and the voltage controller is further configured to, in response to receiving the data from said at least one measurer, add to the subset said at least one measurer. a substation configured to supply electrical power to a plurality of locations ; a plurality of measurers , wherein each measurer is located at one of the plurality of locations and configured to generate data based on a measured component of electrical power received by the measurer ; and a voltage controller configured to receive measurer data from each measurer of a subset of the plurality of measurers , wherein the subset includes more than one and fewer than all of the plurality of measurers , and wherein the subset is selected based on predetermined criteria, wherein the voltage controller is further configured to control a voltage set point of the electrical power supplied by the substation based on the data received from the subset of measurers, at least one measurer of the plurality of measurers that is not included in the subset is configured to send data to the voltage controller when the voltage measured by said at least one measurer is determined to be outside of a target voltage band; and the voltage controller is further configured to, in response to receiving the data from said at least one measurer, add to the subset said at least one measurer.
A shaping tool comprising a membrane made of a polymer material, said membrane having a shaping surface, characterized in that said tool comprises thermalization means inserted into said membrane.
Method for the biological in-situ methanation of CO 2 and H 2 in a single-stage bioreactor, characterized in that a) organic substrate is fed to the bioreactor and at least part of the organic substrate is converted to biogas by means of microorganisms, b) at least 0.15 kg of crude fiber determined according to Weender per m 3 bioreactor volume per day is fed to the bioreactor, c) the bioreactor is operated at 20 - 45°C, d) H 2 is fed to the bioreactor and at least part of the H 2 together with CO 2 is converted to methane by means of microorganisms. a) organic substrate is fed to the bioreactor and at least part of the organic substrate is converted to biogas by means of microorganisms, b) at least 0.15 kg of crude fiber determined according to Weender per m 3 bioreactor volume per day is fed to the bioreactor, c) the bioreactor is operated at 20 - 45°C, d) H 2 is fed to the bioreactor and at least part of the H 2 together with CO 2 is converted to methane by means of microorganisms.
A method for inducing production of caudalised ventral mesencephalon progenitor cells, comprising: plating embryonic stem cells onto a substrate containing laminin-111, wherein said stem cells are cultured in cell culture mediums to produce said caudalised ventral mesencephalon progenitor cells, wherein said caudalised ventral mesencephalon progenitor cells express high levels of EN1, SPRY1, WNT1, CNPY1, PAX8, ETV5, PAX5, FGF8, SP5, or TLE4, wherein the stem cells are cultured in a primary medium comprising N2 medium, a TGF-β inhibitor, noggin, sonic hedgehog protein, and a GSK3 inhibitor, and which does not contain B27 supplement, wherein the primary medium is removed and a secondary medium is added, the secondary medium comprising N2 medium and a fibroblast growth factor (FGF), and which does not contain B27 supplement, wherein the FGF is FGF8b, wherein the substrate consists of intact laminin or fragments of the laminin, wherein the secondary medium is added 156 hours to 228 hours after the plating, wherein the secondary medium is removed and the stem cells are replated, wherein the replating occurs 252 hours to 276 hours after the plating, wherein the replating occurs using a tertiary medium that comprises a B27 medium, a ROCK inhibitor, the FGF, a brain derived neurotrophic factor (BDNF), and ascorbic acid, and/or wherein the stem cells are then cultured in a quaternary medium, the quaternary medium comprising a B27 medium, the FGF, a brain derived neurotrophic factor (BDNF), and ascorbic acid. plating embryonic stem cells onto a substrate containing laminin-111, wherein said stem cells are cultured in cell culture mediums to produce said caudalised ventral mesencephalon progenitor cells, wherein said caudalised ventral mesencephalon progenitor cells express high levels of EN1, SPRY1, WNT1, CNPY1, PAX8, ETV5, PAX5, FGF8, SP5, or TLE4, wherein the stem cells are cultured in a primary medium comprising N2 medium, a TGF-β inhibitor, noggin, sonic hedgehog protein, and a GSK3 inhibitor, and which does not contain B27 supplement, wherein the primary medium is removed and a secondary medium is added, the secondary medium comprising N2 medium and a fibroblast growth factor (FGF), and which does not contain B27 supplement, wherein the FGF is FGF8b, wherein the substrate consists of intact laminin or fragments of the laminin, wherein the secondary medium is added 156 hours to 228 hours after the plating, wherein the secondary medium is removed and the stem cells are replated, wherein the replating occurs 252 hours to 276 hours after the plating, wherein the replating occurs using a tertiary medium that comprises a B27 medium, a ROCK inhibitor, the FGF, a brain derived neurotrophic factor (BDNF), and ascorbic acid, and/or wherein the stem cells are then cultured in a quaternary medium, the quaternary medium comprising a B27 medium, the FGF, a brain derived neurotrophic factor (BDNF), and ascorbic acid.
A calibration work support device comprising: a calibration target setter configured to set a target value of a simulation signal that is input to a device in calibration of the device; a simulation signal acquirer configured to acquire an input value based on the simulation signal input to the device; a proper range determiner configured to determine whether or not the input value acquired by the simulation signal acquirer is within a proper range for the target value set by the calibration target setter ; a proper range notifier configured to notify a user whether or not the input value is within the proper range; and an output value acquirer configured to acquire an output value that is output from the device in accordance with the simulation signal that is input to the device; characterized by a condition determiner configured to count an elapsed time from when the input value acquired by the simulation signal acquirer enters into the proper range, and configured to determine whether or not a first condition representing that the elapsed time reaches a predetermined time (T1) is satisfied; and a recorder configured to record the input value and the output value if the condition determiner has determined that the first condition is satisfied. a calibration target setter configured to set a target value of a simulation signal that is input to a device in calibration of the device; a simulation signal acquirer configured to acquire an input value based on the simulation signal input to the device; a proper range determiner configured to determine whether or not the input value acquired by the simulation signal acquirer is within a proper range for the target value set by the calibration target setter ; a proper range notifier configured to notify a user whether or not the input value is within the proper range; and an output value acquirer configured to acquire an output value that is output from the device in accordance with the simulation signal that is input to the device; characterized by a condition determiner configured to count an elapsed time from when the input value acquired by the simulation signal acquirer enters into the proper range, and configured to determine whether or not a first condition representing that the elapsed time reaches a predetermined time (T1) is satisfied; and a recorder configured to record the input value and the output value if the condition determiner has determined that the first condition is satisfied.
A lithium ion-conductive glass ceramic, wherein the glass ceramic comprises a crystal phase having the chemical composition of Li 1+x-y M y 5+ M x 3+ M 2-x-y 4+ (PO 4 ) 3 , wherein the following is true: M 3+ = a trivalent cation of one or several elements, M 4+ = a tetravalent cation of one or several elements, M 5+ = a pentavalent cation of one or several elements, x is higher than 0 and at most 1, x is higher than y, y is 0 to 1, wherein (1 + x - y) is higher than 1, wherein at least Al 3+ as trivalent ion and at least Ti 4+ as tetravalent ion are contained, wherein the glass ceramic comprises a vitreous phase with an ionic conductivity of higher than 10 -5 S/cm, wherein the composition of the vitreous phase comprises Li 2 O, P 2 O 5 and B 2 O 3 , and values of the content of B 2 O 3 are from 0.2 % by mole to 4 % by mole, and wherein values of the ratio of Al 2 O 3 /TiO 2 in the glass ceramic are between 0.05 to 0.1, and wherein values of the ratio of Al 2 O 3 /Li 2 O in the glass ceramic are between > 0 and 0.25. M 3+ = a trivalent cation of one or several elements, M 4+ = a tetravalent cation of one or several elements, M 5+ = a pentavalent cation of one or several elements, x is higher than 0 and at most 1, x is higher than y, y is 0 to 1, wherein (1 + x - y) is higher than 1, wherein at least Al 3+ as trivalent ion and at least Ti 4+ as tetravalent ion are contained, wherein the glass ceramic comprises a vitreous phase with an ionic conductivity of higher than 10 -5 S/cm, wherein the composition of the vitreous phase comprises Li 2 O, P 2 O 5 and B 2 O 3 , and values of the content of B 2 O 3 are from 0.2 % by mole to 4 % by mole, and wherein values of the ratio of Al 2 O 3 /TiO 2 in the glass ceramic are between 0.05 to 0.1, and wherein values of the ratio of Al 2 O 3 /Li 2 O in the glass ceramic are between > 0 and 0.25.
A composition comprising nanoparticles comprising paclitaxel and an albumin for use in a method of treating non-small-cell lung cancer (NSCLC) in an individual, wherein the method comprises administering to the individual a) an effective amount of the composition and b) an effective amount of a platinum-based agent, wherein treatment is based upon the individual having diabetes.
A method of preparing a micro- and mesoporous carbon, comprising the steps of: (a) reacting a starting polymer selected from formulae (I), (II), (III) or (IV): wherein n is an integer comprised within the range of from about 200 to about 6,000, with a Friedel-Crafts catalyst in an aprotic organic solvent and with formaldehyde dimethyl acetal (FDA) as a crosslinking agent, thereby obtaining a porous polymer hyper-crosslinked through methylene bridges between the aromatic rings of the polymer of formula (I), (II), (III) or (IV), wherein the number of methylene bridges for each aromatic ring ranges from one to three; b) subjecting the hyper-crosslinked porous polymer obtained in step (a) to a carbonization heat treatment at a temperature comprised within the range of 500 to 950°C, in the presence of an activating agent in a solvent, wherein the weight ratio between the activating agent and the hyper-crosslinked porous polymer is comprised between 0.5:1 and 8:1. (a) reacting a starting polymer selected from formulae (I), (II), (III) or (IV): wherein n is an integer comprised within the range of from about 200 to about 6,000, with a Friedel-Crafts catalyst in an aprotic organic solvent and with formaldehyde dimethyl acetal (FDA) as a crosslinking agent, thereby obtaining a porous polymer hyper-crosslinked through methylene bridges between the aromatic rings of the polymer of formula (I), (II), (III) or (IV), wherein the number of methylene bridges for each aromatic ring ranges from one to three; b) subjecting the hyper-crosslinked porous polymer obtained in step (a) to a carbonization heat treatment at a temperature comprised within the range of 500 to 950°C, in the presence of an activating agent in a solvent, wherein the weight ratio between the activating agent and the hyper-crosslinked porous polymer is comprised between 0.5:1 and 8:1.
A method, comprising: obtaining, by a device, a heartbeat profile of a current subject, the heartbeat profile being based on photoplethysmography (PPG) data associated with a set of wavelength channels; determining, by the device, a global model including a plurality of classes, each class of the plurality of classes being associated with a subject identifier and a blood pressure level (BPL) identifier; identifying, by the device, a class, of the plurality of classes included in the global model, as a closest class to the current subject, the closest class being identified based on the heartbeat profile of the current subject; identifying, by the device, a local subject associated with the closest class, the local subject being identified based on the subject identifier associated with the closest class; generating, by the device, a BPL estimation model for the current subject based on heartbeat profile data for the local subject; and determining, by the device, a BPL estimation for the current subject based on the heartbeat profile of the current subject and using the BPL estimation model. obtaining, by a device, a heartbeat profile of a current subject, the heartbeat profile being based on photoplethysmography (PPG) data associated with a set of wavelength channels; determining, by the device, a global model including a plurality of classes, each class of the plurality of classes being associated with a subject identifier and a blood pressure level (BPL) identifier; identifying, by the device, a class, of the plurality of classes included in the global model, as a closest class to the current subject, the closest class being identified based on the heartbeat profile of the current subject; identifying, by the device, a local subject associated with the closest class, the local subject being identified based on the subject identifier associated with the closest class; generating, by the device, a BPL estimation model for the current subject based on heartbeat profile data for the local subject; and determining, by the device, a BPL estimation for the current subject based on the heartbeat profile of the current subject and using the BPL estimation model.
A camera assembly , comprising: a first camera ; a first motor , coupled to the first camera , and configured to drive the first camera to move; a second camera , comprising a plurality of pixel blocks , each pixel block comprising a plurality of photodiode pixels , each pixel block being configured to obtain first photodiode pixel data by capturing a portrait area corresponding to a face through a first part of the plurality of photodiode pixels and obtain second photodiode pixel data by capturing the portrait area through a second part of the plurality of photodiode pixels when the face is detected by the second camera , wherein each pixel block comprises 2 ∗ 2 photodiode pixels, the first part of the plurality of photodiode pixels represent the left two pixels of the pixel block and the second part of the plurality of photodiode pixels represent the right two pixels of the pixel block; and a controller , coupled to the first camera , the first motor and the second camera respectively, and configured to obtain global photodiode pixel data by performing data adding on the first photodiode pixel data captured by all the pixel blocks of the second camera and performing data adding on the second photodiode pixel data captured by all the pixel blocks of the second camera , to calculate a phase difference according to the global photodiode pixel data, and to control the first motor to drive the first camera to move to an in-focus position according to the phase difference. a first camera ; a first motor , coupled to the first camera , and configured to drive the first camera to move; a second camera , comprising a plurality of pixel blocks , each pixel block comprising a plurality of photodiode pixels , each pixel block being configured to obtain first photodiode pixel data by capturing a portrait area corresponding to a face through a first part of the plurality of photodiode pixels and obtain second photodiode pixel data by capturing the portrait area through a second part of the plurality of photodiode pixels when the face is detected by the second camera , wherein each pixel block comprises 2 ∗ 2 photodiode pixels, the first part of the plurality of photodiode pixels represent the left two pixels of the pixel block and the second part of the plurality of photodiode pixels represent the right two pixels of the pixel block; and a controller , coupled to the first camera , the first motor and the second camera respectively, and configured to obtain global photodiode pixel data by performing data adding on the first photodiode pixel data captured by all the pixel blocks of the second camera and performing data adding on the second photodiode pixel data captured by all the pixel blocks of the second camera , to calculate a phase difference according to the global photodiode pixel data, and to control the first motor to drive the first camera to move to an in-focus position according to the phase difference.
A process for preparing a nitrated compound, comprising the step of reacting a compound (A) comprising at least one substituted or unsubstituted aromatic or heteroaromatic ring, wherein said heteroaromatic ring comprises at least one heteroatom selected from the group consisting of oxygen, sulfur, phosphor, selenium and nitrogen, with a compound of formula (I) wherein Y is selected from the group consisting of hydrogen and nitro.
A prosthesis comprising: a plurality of serpentine rings comprising struts ; fingers protruding from the struts , wherein a metal to vessel ratio of the prosthesis when in the final configuration is sufficiently high to encourage tissue ingrowth around the prosthesis yet is sufficiently low to ensure perfusion of a branch vessel through the prosthesis, the metal to vessel ratio being the area occupied by a material of the prosthesis for a unit area of the prosthesis when in a final configuration; the metal to vessel ratio being within the range of 30 percent to 80 percent. a plurality of serpentine rings comprising struts ; fingers protruding from the struts , wherein a metal to vessel ratio of the prosthesis when in the final configuration is sufficiently high to encourage tissue ingrowth around the prosthesis yet is sufficiently low to ensure perfusion of a branch vessel through the prosthesis, the metal to vessel ratio being the area occupied by a material of the prosthesis for a unit area of the prosthesis when in a final configuration; the metal to vessel ratio being within the range of 30 percent to 80 percent.
A turbomachine comprising a rotating spool comprising a drive shaft delivering mechanical power, characterized in that it comprises at least one electromagnetic pump mechanically decoupled from the drive shaft, each electromagnetic pump comprising at least one stator delimiting an annular internal volume wherein is present a rotor able to drive a fluid, a plurality of magnets distributed annularly on the rotor and at least one plurality of coils distributed annularly inside the stator , the coils of the plurality of coils facing the magnets along an axial direction (D A ).
An electromagnetic acoustic transducer (EMAT) transceiver (TRX) for inspecting a pipe , the EMAT comprising: a multichannel EMAT transmitter (TX) having a plurality of transmitter coils , wherein the EMAT TX is configured to generate forward-propagating ultrasound waves and backward-propagating ultrasound waves circumferentially around the pipe , and wherein the forward-propagating circumferential ultrasound waves have higher amplitude than the backward-propagating circumferential ultrasound waves; and a multichannel EMAT receiver (RX) having a plurality of receiver coils , wherein the receiver coils are configured to receive the ultrasound waves transmitted by the EMAT TX through the pipe , wherein the EMAT RX is configured to discriminate among the received ultrasound waves into (i) forward propagating waves comprising forward-propagating waves (140-F) and reflected backward-propagating waves (140-B-R) in a first direction; and (ii) backward-propagating waves comprising backward-propagating waves (140-B) and reflected forward-propagating waves (140-F-R) in a second direction that is circumferentially opposite from the first direction. a multichannel EMAT transmitter (TX) having a plurality of transmitter coils , wherein the EMAT TX is configured to generate forward-propagating ultrasound waves and backward-propagating ultrasound waves circumferentially around the pipe , and wherein the forward-propagating circumferential ultrasound waves have higher amplitude than the backward-propagating circumferential ultrasound waves; and a multichannel EMAT receiver (RX) having a plurality of receiver coils , wherein the receiver coils are configured to receive the ultrasound waves transmitted by the EMAT TX through the pipe , wherein the EMAT RX is configured to discriminate among the received ultrasound waves into (i) forward propagating waves comprising forward-propagating waves (140-F) and reflected backward-propagating waves (140-B-R) in a first direction; and (ii) backward-propagating waves comprising backward-propagating waves (140-B) and reflected forward-propagating waves (140-F-R) in a second direction that is circumferentially opposite from the first direction.