mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a workpiece, comprising the steps of: preparing a die assembly including a pair of dies , at least one of the dies having a shoe with a cooling system, a plurality of forming pieces operably coupled with the shoe , and at least one compressible member sandwiched between the shoe and at least one of the forming pieces ; positioning a metal blank in the die assembly and between the pair of dies ; moving at least one of the dies towards the other die ; compressing the at least one compressible member to move at least one of the forming pieces relative to another forming piece ; deforming the blank with the plurality of forming pieces ; separating the pair of dies by a predetermined distance such that at least one of the forming pieces disengages from the deformed blank while the at least one compressible member expands to maintain at least one of the forming pieces in engagement with the deformed blank ; and conductively cooling a portion of the surface of the deformed blank with the at least one forming piece in engagement with the deformed blank after separating the pair of dies by the predetermined distance such that the conductively cooled portion of the deformed blank acquires a different microstructure than the remainder of the deformed blank . preparing a die assembly including a pair of dies , at least one of the dies having a shoe with a cooling system, a plurality of forming pieces operably coupled with the shoe , and at least one compressible member sandwiched between the shoe and at least one of the forming pieces ; positioning a metal blank in the die assembly and between the pair of dies ; moving at least one of the dies towards the other die ; compressing the at least one compressible member to move at least one of the forming pieces relative to another forming piece ; deforming the blank with the plurality of forming pieces ; separating the pair of dies by a predetermined distance such that at least one of the forming pieces disengages from the deformed blank while the at least one compressible member expands to maintain at least one of the forming pieces in engagement with the deformed blank ; and conductively cooling a portion of the surface of the deformed blank with the at least one forming piece in engagement with the deformed blank after separating the pair of dies by the predetermined distance such that the conductively cooled portion of the deformed blank acquires a different microstructure than the remainder of the deformed blank .
A solar tile comprising a solar panel , a fixing substrate configured to support the solar panel , and a circuit module disposed on the fixing substrate , the fixing substrate comprises a metal frame and a rubber layer cladding the metal frame , the solar panel is fixedly stacked on the fixing substrate , the metal frame comprises a plurality of beams which are spaced and parallel and a plurality of stringers which are connected to the beams and are spaced and parallel, characterized in that each of the beams comprises a first arc portion and two first horizontal portions extending horizontally from two edges of the first arc portion respectively, the two first horizontal portions are symmetrically arranged about a center line which is the central axis of the first arc portion ; the stringer comprise a second arc portion and two second horizontal portions extending horizontally from two edges of the second arc portion respectively, the two second horizontal portions are symmetrically arranged about a center line which is the central axis of the second arc portion , the two first horizontal portions of the beam and the two second horizontal portions of the stringer are oppositely disposed and connected with each other.
A method comprising: receiving power at an optical transceiver module at a remote network device on a cable delivering power and data from a central network device ; operating the remote network device in a low voltage mode during fault sensing at the remote network device; transmitting on the cable, a data signal to the central network device, said data signal indicating an operating status based on said fault sensing; and receiving high voltage power from the central network device on the cable at the remote network device upon transmitting as said data signal an indication of a safe operating status, wherein the remote network device is powered by the high voltage power in a high power operation mode; wherein the high voltage power comprises high voltage pulse power, the method comprising performing fault sensing between pulses in the high power operation mode. receiving power at an optical transceiver module at a remote network device on a cable delivering power and data from a central network device ; operating the remote network device in a low voltage mode during fault sensing at the remote network device; transmitting on the cable, a data signal to the central network device, said data signal indicating an operating status based on said fault sensing; and receiving high voltage power from the central network device on the cable at the remote network device upon transmitting as said data signal an indication of a safe operating status, wherein the remote network device is powered by the high voltage power in a high power operation mode; wherein the high voltage power comprises high voltage pulse power, the method comprising performing fault sensing between pulses in the high power operation mode.
A computer-implemented method comprising: receiving an indication that a front image and a rear image have been captured concurrently by respective front and rear image capturing devices of a mobile terminal , wherein a security level to be associated with the front and rear image is predefined and selected from a plurality of values; and automatically associating the predefined security level with the captured images to control access to the image content in combination with security credentials; and in the absence of an entry of the security credentials, restricting access to the respective front and rear images by obfuscating the images when viewed by a user according to the associated security level; wherein the plurality of values include values indicating increasing amounts of partial obfuscation to be applied to the rear image including obfuscation of a face or body of a person identified by a facial or body recognition method within the rear image without correspondingly obfuscating the front image. receiving an indication that a front image and a rear image have been captured concurrently by respective front and rear image capturing devices of a mobile terminal , wherein a security level to be associated with the front and rear image is predefined and selected from a plurality of values; and automatically associating the predefined security level with the captured images to control access to the image content in combination with security credentials; and in the absence of an entry of the security credentials, restricting access to the respective front and rear images by obfuscating the images when viewed by a user according to the associated security level; wherein the plurality of values include values indicating increasing amounts of partial obfuscation to be applied to the rear image including obfuscation of a face or body of a person identified by a facial or body recognition method within the rear image without correspondingly obfuscating the front image.
A pharmaceutical composition comprising (S)-1-(3-(4-amino-3-((3,5-dimethoxyphenyl)ethynyl)-1H-pyrazolo[3,4-d]pyrimidin-1-yl)-1-pyrrolidinyl)-2-propen-1-one having the following structure, or a pharmaceutically acceptable salt thereof, and sodium lauryl sulfate:
A program which, when running on a computer or when loaded onto a computer , causes the computer to perform the method steps of a computer-implemented medical method of adjusting control commands for moving a medical imaging device connected to a moving device , wherein the method comprises the following steps: - first image data is acquired (S1), describing a first image acquired via the medical imaging device ; - intended motion data is acquired (S2), describing an intended motion of the medical imaging device , wherein the intended motion data is based on a current control command transmitted to the moving device ; - second image data is acquired (S3), describing a second image acquired via the medical imaging device that has been moved as a result of the current control command; and - actual motion data is determined (S4) based on the first image data and the second image data, describing an actual motion of the medical imaging device characterized by the following steps: - correction data is determined (S5) based on the intended motion data and the actual motion data, describing a correction to be applied to the current control command in order to produce the intended motion of the medical imaging device ; - control data is determined (S6) based on the correction data, describing a corrected current control command to be transmitted to the moving device to have the moving device perform the intended motion; - transmit the corrected current control command to the moving device . - first image data is acquired (S1), describing a first image acquired via the medical imaging device ; - intended motion data is acquired (S2), describing an intended motion of the medical imaging device , wherein the intended motion data is based on a current control command transmitted to the moving device ; - second image data is acquired (S3), describing a second image acquired via the medical imaging device that has been moved as a result of the current control command; and - actual motion data is determined (S4) based on the first image data and the second image data, describing an actual motion of the medical imaging device characterized by the following steps: - correction data is determined (S5) based on the intended motion data and the actual motion data, describing a correction to be applied to the current control command in order to produce the intended motion of the medical imaging device ; - control data is determined (S6) based on the correction data, describing a corrected current control command to be transmitted to the moving device to have the moving device perform the intended motion; - transmit the corrected current control command to the moving device .
An OAM multiplexing transmission device configured to subject a signal in an electromagnetic wave orbital angular momentum, OAM, mode to spatial multiplex transmission by using a uniform circular array, UCA, in which a plurality of antenna elements are disposed circularly at an equal interval, the OAM multiplexing transmission device comprising: A digital signal processing unit configured to generate a plurality of transmission streams, wherein in each stream, a channel estimation signal sequence and a data signal sequence are consecutively transmitted, wherein the channel estimation signal sequence is transmitted before the data signal sequence, and a cyclic prefix, CP, having a predetermined length is attached to the first half of the channel estimation signal sequence, and a basic channel estimation signal sequence having a predetermined length and a zero correlation that is subjected to time shift by a predetermined shift value for each of the transmission streams, is used as the channel estimation signal sequence of each stream; an RF unit configured to convert a baseband signal sequence of the generated transmission streams to frequency conversion into radio frequency, RF, band, or convert into intermediate frequency, IF, band and then convert into the RF band; and a transmitting antenna unit configured to convert a plurality of the frequency-converted transmission streams into a plurality of OAM mode signals having different orders, and multiplex spatially, wherein the transmitting antenna unit is a UCA. A digital signal processing unit configured to generate a plurality of transmission streams, wherein in each stream, a channel estimation signal sequence and a data signal sequence are consecutively transmitted, wherein the channel estimation signal sequence is transmitted before the data signal sequence, and a cyclic prefix, CP, having a predetermined length is attached to the first half of the channel estimation signal sequence, and a basic channel estimation signal sequence having a predetermined length and a zero correlation that is subjected to time shift by a predetermined shift value for each of the transmission streams, is used as the channel estimation signal sequence of each stream; an RF unit configured to convert a baseband signal sequence of the generated transmission streams to frequency conversion into radio frequency, RF, band, or convert into intermediate frequency, IF, band and then convert into the RF band; and a transmitting antenna unit configured to convert a plurality of the frequency-converted transmission streams into a plurality of OAM mode signals having different orders, and multiplex spatially, wherein the transmitting antenna unit is a UCA.
A negative electrode active material for a secondary battery, comprising: natural graphite particles; and a carbon coating layer on a surface of the natural graphite particles and in an inside of the natural graphite particles, wherein the negative electrode active material has a porosity of 3% to 13% when measured as described in the description. natural graphite particles; and a carbon coating layer on a surface of the natural graphite particles and in an inside of the natural graphite particles, wherein the negative electrode active material has a porosity of 3% to 13% when measured as described in the description.
Process for the preparation of a compound with at least one monothiocarbonate group by reacting - a compound with at least one mercaptoalcohol group and - a dialkylcarbonate in the presence of a catalyst wherein the catalyst is a salt of a metal selected from group IIIb or IVb of the periodic system, wherein the compound with at least one monothiocarbonate group is a compound of formula I with R 1 to R 4 independently from each other representing hydrogen or an organic group with up to 50 carbon atoms whereby R 2 and R 4 and the two carbon atoms to which R 2 and R 4 are bonded may form a ring system, the compound with at least one mercaptoalcohol group is a compound of formula IIb , and the dialkylcarbonate is a compound of formula III with R 5 and R 6 independently from each other representing a non-aromatic hydrocarbon group with 1 to 10 carbon atoms or may together form an alkylene bridge comprising 2 to 9 carbon atoms. - a compound with at least one mercaptoalcohol group and - a dialkylcarbonate in the presence of a catalyst wherein the catalyst is a salt of a metal selected from group IIIb or IVb of the periodic system, wherein the compound with at least one monothiocarbonate group is a compound of formula I with R 1 to R 4 independently from each other representing hydrogen or an organic group with up to 50 carbon atoms whereby R 2 and R 4 and the two carbon atoms to which R 2 and R 4 are bonded may form a ring system, the compound with at least one mercaptoalcohol group is a compound of formula IIb , and the dialkylcarbonate is a compound of formula III with R 5 and R 6 independently from each other representing a non-aromatic hydrocarbon group with 1 to 10 carbon atoms or may together form an alkylene bridge comprising 2 to 9 carbon atoms.
A semiconductor device comprising: a crystalline oxide semiconductor layer ; and at least one electrode electrically connected to the crystalline oxide semiconductor layer , wherein the crystalline oxide semiconductor layer consists of α-Ga 2 O 3 , wherein the crystalline oxide semiconductor layer comprises at least one trench in the crystalline oxide semiconductor layer at a side of a first surface of the crystalline oxide semiconductor layer , wherein the trench comprises a bottom , a side , and at least one arc portion positioned between the bottom and the side with a radius of curvature that is in a range of 100 nm to 500 nm, wherein the trench has a width that is 2 μm or less, and wherein an angle between the side of the trench and the first surface of the crystalline oxide semiconductor layer is 90° or more. a crystalline oxide semiconductor layer ; and at least one electrode electrically connected to the crystalline oxide semiconductor layer , wherein the crystalline oxide semiconductor layer consists of α-Ga 2 O 3 , wherein the crystalline oxide semiconductor layer comprises at least one trench in the crystalline oxide semiconductor layer at a side of a first surface of the crystalline oxide semiconductor layer , wherein the trench comprises a bottom , a side , and at least one arc portion positioned between the bottom and the side with a radius of curvature that is in a range of 100 nm to 500 nm, wherein the trench has a width that is 2 μm or less, and wherein an angle between the side of the trench and the first surface of the crystalline oxide semiconductor layer is 90° or more.
A device for monitoring the disconnection of a patient interface system during ventilation with a ventilator , a control system and an apparatus for data evaluation , and an apparatus for establishing values which are indicative of the time curve of the respiratory gas flow , the output signals of which are fed into the apparatus for data evaluation which, in turn, controls an alarm transmitter , wherein the data evaluation apparatus triggers an alarm on the alarm transmitter if at least one value which is indicative of the time curve of the respiratory gas flow deviates from a specific limit value for a specific period of time , wherein the apparatus comprises a flow sensor and a pressure sensor , wherein the control system is configured in such a way that the limit values are adjusted automatically on the basis of data from the patient interface system , wherein the breathing gas freely escapes from the respirator with the connected patient interface system , that is to say without patients, and the respirator stores the established pressure and flow values and takes these into account as limit values for the establishment of a disconnection, and wherein the limit values are compliance values.
A gel composition comprising: (a) 10-30 wt.% silicone containing, film forming polymer, (b) 2-20 wt.% tackifier (c) at least 40 wt.% volatile solvent, and (d) 0.5 - 20 wt.% cationic polymer, wherein said cationic polymer comprises a crosslinked guanidinyl-containing aminopolymer; each based on the total weight of the gel composition, wherein the Brookfield viscosity of the gel composition is at least 50 Pa•s (50,000 cps) and no greater than 800 Pa•s (800,000 cps) when measured at 23°C using a Brookfield LVT viscometer. (a) 10-30 wt.% silicone containing, film forming polymer, (b) 2-20 wt.% tackifier (c) at least 40 wt.% volatile solvent, and (d) 0.5 - 20 wt.% cationic polymer, wherein said cationic polymer comprises a crosslinked guanidinyl-containing aminopolymer;
A tonsillar composition consisting of drinking water mixed with spray-dried egg contents, wherein the egg contents comprise avian antibodies to one or more pathogenic microorganisms, wherein said avian antibodies bind the one or more pathogenic microorganisms of the lymphatic tissue in the oropharynx and/or nasopharynx of animals.
Method for measuring or monitoring the content of particulate matter suspended in carrier gas, sampled with sample volume flow rate (Q s ), the method comprising electrical particle charging of at least some of the particles in the same sample flow, collecting at least some of the charged particles using electrostatic force in the same sample flow and measuring the electrical current carried by at least some of the charged particles, characterized in that the charging and collecting are dimensioned by maximizing P ch n 2 , where P ch = particle penetration through charger and n = number of elementary charges on a particle, such that the current carried by the particles collected is measured and the said current is only part of total current carried by the charged particles.
A method for transmitting information, characterized by the method being applied to a network side device and comprising: sending (S201) first information to a terminal device, the first information comprising a resource indicator for performing a quasi-periodic Channel State Information, CSI, feedback and duration candidate values of the quasi-periodic CSI feedback; and sending (S202) second information to the terminal device, the second information comprising an activation indicator for activating the quasi-periodic CSI feedback and determination information for determining a duration of the quasi-periodic CSI feedback from the candidate values. sending (S201) first information to a terminal device, the first information comprising a resource indicator for performing a quasi-periodic Channel State Information, CSI, feedback and duration candidate values of the quasi-periodic CSI feedback; and sending (S202) second information to the terminal device, the second information comprising an activation indicator for activating the quasi-periodic CSI feedback and determination information for determining a duration of the quasi-periodic CSI feedback from the candidate values.
Process for the preparation of estetrol of formula (I), starting from the compound of formula (II) characterized in that (a) a compound of formula (II) is acylated in a suitable solvent using a suitable reactant to give a compound of general formula (III) wherein R = methyl group or hydrogen (b) removal of the benzyl protecting group in position 3 by transfer or catalytic hydrogenation to give a compound of general formula (IV) wherein R = methyl group or hydrogen (c) deprotection in an alkaline medium with an alkali metal carbonate, alkali metal hydrogen carbonate or alkali metal hydroxides in a suitable solvent. (a) a compound of formula (II) is acylated in a suitable solvent using a suitable reactant to give a compound of general formula (III) wherein R = methyl group or hydrogen (b) removal of the benzyl protecting group in position 3 by transfer or catalytic hydrogenation to give a compound of general formula (IV) wherein R = methyl group or hydrogen (c) deprotection in an alkaline medium with an alkali metal carbonate, alkali metal hydrogen carbonate or alkali metal hydroxides in a suitable solvent.
A wiring diagnostic apparatus comprising: a counter configured to count the number of battery modules (MDL) connected to a plurality of first communication lines (DC) to which a plurality of battery modules are connected to form a communication channel for each of the first communication lines; an acquirer configured to acquire identification information for identifying a battery module connected to a corresponding second communication line (BS) among battery modules connected to a plurality of second communication lines each forming the communication channel with the first communication line via the second communication line; and an abnormality determiner configured to determine an abnormality in a wiring relationship of the first communication line (DC) or the second communication line (BS) on the basis of the number of battery modules (MDL) counted by the counter and identification information acquired by the acquirer . a counter configured to count the number of battery modules (MDL) connected to a plurality of first communication lines (DC) to which a plurality of battery modules are connected to form a communication channel for each of the first communication lines; an acquirer configured to acquire identification information for identifying a battery module connected to a corresponding second communication line (BS) among battery modules connected to a plurality of second communication lines each forming the communication channel with the first communication line via the second communication line; and an abnormality determiner configured to determine an abnormality in a wiring relationship of the first communication line (DC) or the second communication line (BS) on the basis of the number of battery modules (MDL) counted by the counter and identification information acquired by the acquirer .