mhurhangee/patent-ind-claim-en huggingface dataset:
Peptide compound having the following formula II: R 1 -(AA) n -R 2 wherein: - AA is an amino acid; - n = 4, wherein the AA can be different and the bonds being of peptidic or peptoidic type; - R 1 is H or an acyl or sulfonyl group selected from a biotinoyl group or a group having an alkyl, aryl, aralkyl, sugar or alkoxy 1 to 24 carbon atom chain, said chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfur-containing or non-sulfur-containing; - R 2 is OH or a -O-R 7 group or a -NR 8 R 9 group, R 7 , R 8 et R 9 being independently from each other a hydrogen, an alkyl, aryl, aralkyl, acyl, sulfonyl, sugar or alkoxy of 1 to 24 carbon atoms chain, said chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfur-containing or non-sulfur-containing; wherein the compound is selected from: R 1 -K-MO2-MO2-K-R 2 (SEQ ID NO 29), R 1 -K-MO2-Ava-K-R 2 (SEQ ID NO 30), R 1 -K-Ava-MO2-K-R 2 (SEQ ID NO 31), R 1 -MO2-K-Ava-K-R 2 (SEQ ID NO 32), R 1 -K-MO2-F-K-R 2 (SEQ ID NO 33), R 1 -MO2-T-F-K-R 2 (SEQ ID NO 36), R 1 -K-T-M02-K-R 2 (SEQ ID NO 34), R 1 -K-T-F-MO2-R 2 (SEQ ID NO 35), R 1 -G-MO2-Q-P-R 2 (SEQ ID NO 41), R 1 -K-F-MO2-K-R 2 (SEQ ID NO 38), R 1 -K-T-MO2-F-R 2 (SEQ ID NO 39), R 1 -K-MO2-T-K-R 2 (SEQ ID NO 37), R 1 -MO2-G-H-K-R 2 (SEQ ID NO 42), MO2 being a dioxygenated methionine (MO2) and Ava being the 5-amino valeric acid. - AA is an amino acid; - n = 4, wherein the AA can be different and the bonds being of peptidic or peptoidic type; - R 1 is H or an acyl or sulfonyl group selected from a biotinoyl group or a group having an alkyl, aryl, aralkyl, sugar or alkoxy 1 to 24 carbon atom chain, said chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfur-containing or non-sulfur-containing; - R 2 is OH or a -O-R 7 group or a -NR 8 R 9 group, R 7 , R 8 et R 9 being independently from each other a hydrogen, an alkyl, aryl, aralkyl, acyl, sulfonyl, sugar or alkoxy of 1 to 24 carbon atoms chain, said chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfur-containing or non-sulfur-containing; R 1 -K-MO2-MO2-K-R 2 (SEQ ID NO 29), R 1 -K-MO2-Ava-K-R 2 (SEQ ID NO 30), R 1 -K-Ava-MO2-K-R 2 (SEQ ID NO 31), R 1 -MO2-K-Ava-K-R 2 (SEQ ID NO 32), R 1 -K-MO2-F-K-R 2 (SEQ ID NO 33), R 1 -MO2-T-F-K-R 2 (SEQ ID NO 36), R 1 -K-T-M02-K-R 2 (SEQ ID NO 34), R 1 -K-T-F-MO2-R 2 (SEQ ID NO 35), R 1 -G-MO2-Q-P-R 2 (SEQ ID NO 41), R 1 -K-F-MO2-K-R 2 (SEQ ID NO 38), R 1 -K-T-MO2-F-R 2 (SEQ ID NO 39), R 1 -K-MO2-T-K-R 2 (SEQ ID NO 37), R 1 -MO2-G-H-K-R 2 (SEQ ID NO 42), MO2 being a dioxygenated methionine (MO2) and Ava being the 5-amino valeric acid.
A method for determining a transmission bandwidth, comprising: receiving, by a terminal device , first indication information sent by a network device ; and determining, by the terminal device according to the first indication information, the set of sub-bands on an unlicensed carrier that are used for transmission of downlink channels or signals, wherein the unlicensed carrier comprises N sub-bands, the N sub-bands being indexed, said method characterized in that the first indication information is used to determine the sub-band with a smallest index among the set of sub-bands on the unlicensed carrier that are used for transmission of downlink channels or signals, and the number of sub-bands included in said set, wherein an index of the sub-band with the smallest index in said set is S, the number of sub-bands included in said set is L, and the value of the first indication information is R, wherein for the cases in which the L sub-bands are continuous, the value of the first indication information satisfies: R = N ∗ L − 1 + S if L − 1 ⩽ floor N / 2 ; otherwise, R = N ∗ N − L + 1 + N − 1 − S , wherein floor represents round down, L≥1 and L is not greater than N-S, 0≤S ≤N-1. receiving, by a terminal device , first indication information sent by a network device ; and determining, by the terminal device according to the first indication information, the set of sub-bands on an unlicensed carrier that are used for transmission of downlink channels or signals, wherein the unlicensed carrier comprises N sub-bands, the N sub-bands being indexed, said method characterized in that the first indication information is used to determine the sub-band with a smallest index among the set of sub-bands on the unlicensed carrier that are used for transmission of downlink channels or signals, and the number of sub-bands included in said set, wherein an index of the sub-band with the smallest index in said set is S, the number of sub-bands included in said set is L, and the value of the first indication information is R, wherein for the cases in which the L sub-bands are continuous, the value of the first indication information satisfies: R = N ∗ L − 1 + S if L − 1 ⩽ floor N / 2 ; otherwise, R = N ∗ N − L + 1 + N − 1 − S , wherein floor represents round down, L≥1 and L is not greater than N-S, 0≤S ≤N-1.
A biometric authentication device for performing authentication based on a palm of a user, wherein a posture of the palm and/or a shape of the palm changes, the device comprising: an imaging device configured to acquire a plurality of sets of palm images of an identical user, each palm image being taken with light emitted from an illumination source under each of illumination conditions of the illumination source different from one another; an adjusting unit configured to adjust a time interval between acquiring the image sets, in accordance with a condition for imaging the palm, the time interval being a time in which any image acquisition is not performed, the condition for imaging the palm including at least an ID of a user of which an image of a palm is taken; an extracting unit configured to extract a biological feature from each of the image sets; a comparing unit configured to compare each biological feature extracted by the extracting unit with a biological feature registered in advance; and an updating unit configured to update the time interval, in accordance with standard deviation in degree of similarity between each biological feature extracted by the extracting unit and the registered biological feature. an imaging device configured to acquire a plurality of sets of palm images of an identical user, each palm image being taken with light emitted from an illumination source under each of illumination conditions of the illumination source different from one another; an adjusting unit configured to adjust a time interval between acquiring the image sets, in accordance with a condition for imaging the palm, the time interval being a time in which any image acquisition is not performed, the condition for imaging the palm including at least an ID of a user of which an image of a palm is taken; an extracting unit configured to extract a biological feature from each of the image sets; a comparing unit configured to compare each biological feature extracted by the extracting unit with a biological feature registered in advance; and an updating unit configured to update the time interval, in accordance with standard deviation in degree of similarity between each biological feature extracted by the extracting unit and the registered biological feature.
Method for separating heavy components from a high-viscosity starting substrate of biogas plants in the interior of a fermenter by diluting the substrate to reduce the viscosity thereof and separating entrained heavy components of sand and/or split and/or stones by weight, characterised in that a dilution of fresh starting substrate takes place with fermenter content of which the viscosity has been reduced by decomposition processes in the fermenter, the fresh starting substrate and the fermenter content being mixed together by blowing in gas.
A wireless communications device comprising: processing circuitry , memory , and physical-layer circuitry , and characterized in that the wireless communications device is an authenticator device configured to: transmit, to a supplicant, in a first message of a four-way handshake of a rekeying process, a robust security network, RSN, information element, IE, with an extended key ID field containing a 1 if the authenticator device supports use of an extended key ID in unicast communication; receive from the supplicant, in a second message of the four-way handshake, a key ID key data encapsulation, KDE; and transmit, to the supplicant in a third message of the four-way handshake, the key ID KDE to indicate agreement to use the extended key ID. transmit, to a supplicant, in a first message of a four-way handshake of a rekeying process, a robust security network, RSN, information element, IE, with an extended key ID field containing a 1 if the authenticator device supports use of an extended key ID in unicast communication; receive from the supplicant, in a second message of the four-way handshake, a key ID key data encapsulation, KDE; and transmit, to the supplicant in a third message of the four-way handshake, the key ID KDE to indicate agreement to use the extended key ID.
Carrimycin or pharmaceutically acceptable salts of carrimycin for use in treating and/or preventing tumor, wherein the carrimycin is composed of a variety of spiramycin derivatives with main active components of isovaleryl spiramycin I, isovaleryl spiramycin II, and isovaleryl spiramycin III, and a total content of isovaleryl spiramycin I, isovaleryl spiramycin II, and isovaleryl spiramycin III is no less than 60%; the tumor is breast cancer, liver cancer, lung cancer, renal cancer, brain tumor, cervical cancer, prostate cancer, pancreatic cancer, esophageal cancer, gastric cancer, colon cancer, lymphoma or leukemia.
A method of controlling lighting sources (1, 2, ..., n) as a function of a videogame played with at least one display (RC, E), said lighting sources having at least one operating parameter which is controllable in at least one lighting sequence as a function of a time code data set coupled therewith, the method including: - providing a repository (SP) of operating data files for said sources (1, 2, ..., n), said operating data files coupled with said lighting sources (1, 2, ..., n) with each data file including at least one time code data set for at least one lighting sequence for a respective one of said lighting sources (1, 2, ..., n), - retrieving in said data repository (SP) at least one operating data file coupled with a selected one of said lighting sources (1, 2, ..., n), - detecting at said at least one display (RC, E) at least one videogame signal indicative of the development of said videogame, and - operating said selected one of said lighting sources (1, 2, ..., n) by controlling (LC) said at least one operating parameter as a function of the operating data included in the operating data file retrieved and as a function of said at least one videogame signal, wherein the method includes detecting said at least one videogame signal indicative of the development of said videogame as a function of display command data for at least one display area of said display (RC, E), originating adaptive lighting sequences, and wherein said display command data include one of the sum and the average value of the colour coordinates of at least one display area of said display (RC, E). - providing a repository (SP) of operating data files for said sources (1, 2, ..., n), said operating data files coupled with said lighting sources (1, 2, ..., n) with each data file including at least one time code data set for at least one lighting sequence for a respective one of said lighting sources (1, 2, ..., n), - retrieving in said data repository (SP) at least one operating data file coupled with a selected one of said lighting sources (1, 2, ..., n), - detecting at said at least one display (RC, E) at least one videogame signal indicative of the development of said videogame, and - operating said selected one of said lighting sources (1, 2, ..., n) by controlling (LC) said at least one operating parameter as a function of the operating data included in the operating data file retrieved and as a function of said at least one videogame signal,
An apparatus for cutting human or animal tissue, such as a cornea, or a lens, said apparatus including a femtosecond laser capable of emitting a laser beam in the form of pulses and a device for processing the laser beam generated by the femtosecond laser , the processing device being positioned downstream of said femtosecond laser, the processing device comprising: - a shaping system positioned on the trajectory of said beam, the shaping system including a spatial light modulator (SLM) programmed using at least one phase mask to modulate the phase of the wavefront of the laser beam so as to obtain a modulated laser beam, - a sweeping optical scanner downstream of the shaping system, - an optical focusing system downstream of the sweeping optical system, the focusing optical system comprising a concentrator module for focusing the phase-modulated laser beam in a focusing plane and a depth positioning module for moving the focusing plane into a plurality of cutting planes. - a shaping system positioned on the trajectory of said beam, the shaping system including a spatial light modulator (SLM) programmed using at least one phase mask to modulate the phase of the wavefront of the laser beam so as to obtain a modulated laser beam, - a sweeping optical scanner downstream of the shaping system, - an optical focusing system downstream of the sweeping optical system, the focusing optical system comprising a concentrator module for focusing the phase-modulated laser beam in a focusing plane and a depth positioning module for moving the focusing plane into a plurality of cutting planes.
AC-AC converter (C) comprising a) a primary side b) secondary side c) a regulator (R), wherein the regulator (R) comprises d) a voltage regulation circuit configured to determine an error voltage based on a feedback voltage (V_out) fed into the regulator (R) from the secondary side of the AC-AC converter (C) and to supply this error voltage and/or an information about this error voltage to the primary side of the AC-AC converter (C), e) an averaging circuit between the voltage regulation circuit and the secondary side of the AC-AC converter configured to determine an average DC voltage based on the feedback voltage (V_out), characterised in that the regulator further comprises f) a fast reaction circuit configured to help the voltage regulation circuit to react to rapid load changes, wherein g) the fast reaction circuit is connected in parallel or in series with the averaging circuit . a) a primary side b) secondary side c) a regulator (R), d) a voltage regulation circuit configured to determine an error voltage based on a feedback voltage (V_out) fed into the regulator (R) from the secondary side of the AC-AC converter (C) and to supply this error voltage and/or an information about this error voltage to the primary side of the AC-AC converter (C), e) an averaging circuit between the voltage regulation circuit and the secondary side of the AC-AC converter configured to determine an average DC voltage based on the feedback voltage (V_out), characterised in that the regulator further comprises f) a fast reaction circuit configured to help the voltage regulation circuit to react to rapid load changes, wherein g) the fast reaction circuit is connected in parallel or in series with the averaging circuit .
A process for recovering lithium from a lithium-containing silicate mineral, the process comprising: mixing the silicate mineral with nitric acid; subjecting the mixture to a leaching process having conditions such that lithium values in the silicate mineral are leached into an aqueous phase as lithium nitrate; separating lithium nitrate crystals from the aqueous phase; subjecting the separated lithium nitrate crystals to thermal treatment, at a temperature that causes decomposition of the lithium nitrate into solid lithium oxide, and such that a gaseous stream that comprises oxides of nitrogen is produced; passing the gaseous stream comprising oxides of nitrogen to a nitric acid production stage in which nitric acid is produced for reuse in the leaching process. mixing the silicate mineral with nitric acid; subjecting the mixture to a leaching process having conditions such that lithium values in the silicate mineral are leached into an aqueous phase as lithium nitrate; separating lithium nitrate crystals from the aqueous phase; subjecting the separated lithium nitrate crystals to thermal treatment, at a temperature that causes decomposition of the lithium nitrate into solid lithium oxide, and such that a gaseous stream that comprises oxides of nitrogen is produced; passing the gaseous stream comprising oxides of nitrogen to a nitric acid production stage in which nitric acid is produced for reuse in the leaching process.
A method for cleaning a plastic article in an automatic dishwashing machine, comprising: selecting an automatic dishwashing composition for cleaning plastic, wherein the automatic dishwashing composition, comprises: a builder, wherein the builder is selected to include a mixture of at least one carbonate and at least one citrate; a phosphonate; a nonionic surfactant; and a dispersant polymer consisting of: (a) 85 to 91 wt% of structural units of formula I wherein each R 1 is independently selected from a hydrogen and a -CH 3 group; and (b) 9 to 15 wt% of structural units of formula II wherein each R 2 is independently selected from an alkyl group with at least 4 carbon atoms and wherein each R 3 is independently selected from a hydrogen and a methyl group; providing a plastic article, wherein the plastic article includes a polystyrene tumbler; and applying the automatic dishwashing composition to the plastic article. selecting an automatic dishwashing composition for cleaning plastic, wherein the automatic dishwashing composition, comprises: a builder, wherein the builder is selected to include a mixture of at least one carbonate and at least one citrate; a phosphonate; a nonionic surfactant; and a dispersant polymer consisting of: (a) 85 to 91 wt% of structural units of formula I wherein each R 1 is independently selected from a hydrogen and a -CH 3 group; and (b) 9 to 15 wt% of structural units of formula II wherein each R 2 is independently selected from an alkyl group with at least 4 carbon atoms and wherein each R 3 is independently selected from a hydrogen and a methyl group; a builder, wherein the builder is selected to include a mixture of at least one carbonate and at least one citrate; a phosphonate; a nonionic surfactant; and a dispersant polymer consisting of: (a) 85 to 91 wt% of structural units of formula I wherein each R 1 is independently selected from a hydrogen and a -CH 3 group; and (b) 9 to 15 wt% of structural units of formula II wherein each R 2 is independently selected from an alkyl group with at least 4 carbon atoms and wherein each R 3 is independently selected from a hydrogen and a methyl group; (a) 85 to 91 wt% of structural units of formula I wherein each R 1 is independently selected from a hydrogen and a -CH 3 group; and (b) 9 to 15 wt% of structural units of formula II wherein each R 2 is independently selected from an alkyl group with at least 4 carbon atoms and wherein each R 3 is independently selected from a hydrogen and a methyl group; wherein each R 2 is independently selected from an alkyl group with at least 4 carbon atoms and wherein each R 3 is independently selected from a hydrogen and a methyl group; providing a plastic article, wherein the plastic article includes a polystyrene tumbler; and applying the automatic dishwashing composition to the plastic article.
A computer-implemented method comprising: generating, via a digital analog converter, DAC, , a frequency signal; filtering the frequency signal, via a low pass filter , to produce a first filtered signal (f1); filtering the frequency signal, via a high pass filter , to produce a second filtered signal (F2); transmitting the second filtered signal to a device under test, DUT, , the DUT processing the second filtered signal to generate an output signal; filtering the second filtered signal, via a bandpass filter , to obtain a sub-signal having a centre frequency component (f2) and a frequency band component (f2 band) which includes the centre frequency component, the output signal also including the sub-signal; mixing the first filtered signal with the sub-signal, via a first mixer , to produce a first mixed signal (f1+f2+f2 band) by adding the first filtered signal, the centre frequency component and the band frequency component together; mixing the first mixed signal with the output signal via a second mixer to produce a second mixed signal (f1+f2 band), the second mixer removing the centre frequency component from the output signal to determine if a phase shift has occurred in the output signal; and converting the second mixed signal for analysis. generating, via a digital analog converter, DAC, , a frequency signal; filtering the frequency signal, via a low pass filter , to produce a first filtered signal (f1); filtering the frequency signal, via a high pass filter , to produce a second filtered signal (F2); transmitting the second filtered signal to a device under test, DUT, , the DUT processing the second filtered signal to generate an output signal; filtering the second filtered signal, via a bandpass filter , to obtain a sub-signal having a centre frequency component (f2) and a frequency band component (f2 band) which includes the centre frequency component, the output signal also including the sub-signal; mixing the first filtered signal with the sub-signal, via a first mixer , to produce a first mixed signal (f1+f2+f2 band) by adding the first filtered signal, the centre frequency component and the band frequency component together; mixing the first mixed signal with the output signal via a second mixer to produce a second mixed signal (f1+f2 band), the second mixer removing the centre frequency component from the output signal to determine if a phase shift has occurred in the output signal; and converting the second mixed signal for analysis.
An aseptic processing workstation comprising:- a processing chamber ; an airflow circuit passing through the chamber , said circuit comprising an air supply fan , an air return fan and a restriction element , the chamber being located in the circuit between the air supply fan and the air return fan , and the restriction element being located in the circuit on the other side of the air supply fan and the air return fan to the chamber ; an air inlet fluidly connected at a first connection point to the circuit via inlet valve means , the first connection point being located between the restriction element and the air supply fan ; an air outlet fluidly connected at a second connection point to the circuit via outlet valve means ; and control means for independently controlling the speed of the air supply fan and the air return fan ; wherein the restriction element is an orifice or a filter, which enables the creation of a pressure drop across the restriction element. a processing chamber ; an airflow circuit passing through the chamber , said circuit comprising an air supply fan , an air return fan and a restriction element , the chamber being located in the circuit between the air supply fan and the air return fan , and the restriction element being located in the circuit on the other side of the air supply fan and the air return fan to the chamber ; an air inlet fluidly connected at a first connection point to the circuit via inlet valve means , the first connection point being located between the restriction element and the air supply fan ; an air outlet fluidly connected at a second connection point to the circuit via outlet valve means ; and control means for independently controlling the speed of the air supply fan and the air return fan ; wherein the restriction element is an orifice or a filter, which enables the creation of a pressure drop across the restriction element.