mhurhangee/ep-ind-claims huggingface dataset:
A method of obtaining data in a system in which share volumes of the data are dispersed across a communication network comprising: a first computer requesting the data; forwarding the request to a second computer; the second computer determining if another computer has reassembled the data; the second computer causing the first computer to be informed that the request cannot be granted when the data has been reassembled by another computer; characterized in the second computer enabling the first computer to perform the following actions when the data has not been reassembled by another computer: accessing personal information associated only with a user of the first computer that authorizes the user to access the data, using the personal information to determine reassembly information necessary to reassemble the data, using the reassembly information to reassemble the data, destroying the personal information, dispersing the reassembled data across the communication network, and creating new personal information for the user. a first computer requesting the data; forwarding the request to a second computer; the second computer determining if another computer has reassembled the data; the second computer causing the first computer to be informed that the request cannot be granted when the data has been reassembled by another computer; characterized in the second computer enabling the first computer to perform the following actions when the data has not been reassembled by another computer: accessing personal information associated only with a user of the first computer that authorizes the user to access the data, using the personal information to determine reassembly information necessary to reassemble the data, using the reassembly information to reassemble the data, destroying the personal information, dispersing the reassembled data across the communication network, and creating new personal information for the user. accessing personal information associated only with a user of the first computer that authorizes the user to access the data, using the personal information to determine reassembly information necessary to reassemble the data, using the reassembly information to reassemble the data, destroying the personal information, dispersing the reassembled data across the communication network, and creating new personal information for the user.
A method for treating polyester textile with a cutinase in the presence of a glycosyl hydrolase family 61 polypeptide in an aqueous solution; wherein the glycosyl hydrolase family 61 polypeptide is in the range of from 0.01 to 50 milligram enzyme protein pergram of polyester textile, preferably 0.05-20 milligram of enzyme protein per gram of polyester textile, preferably 0.1-15 milligram of enzyme protein per gram of polyester textile, more preferably 0.2-8 milligram of enzyme protein per gram of polyester textile, and even more preferably 0.2-5 milligram of enzyme protein per gram of polyester textile.
Structural member component for a body of a motor vehicle, comprising at least one member element (10, 30, 30') which is substantially made of a light-weight material and which can be galvanically coupled to a body element via at least one coupling element (18, 20, 22), characterised in that the coupling element (18, 20, 22) is designed as a conductor track (18, 20, 22) sprayed onto the member element (10, 30, 30').
An actuator system comprising: a ballscrew shaft; a first ballnut engaged with the ballscrew shaft; a second ballnut engaged with the ballscrew shaft and configured to be attached to a first translatable object; a bearing fixed to the ballscrew shaft between the first ballnut and the second ballnut and configured to be coupled to a second translatable object, the bearing being fixed to the ballscrew shaft such that it does not translate relative to the ballscrew shaft; a drive mechanism operably coupled to the first ballnut that rotates the first ballnut; and a locking mechanism selectively coupling the ballscrew shaft to the first ball nut such that when the locking mechanism is coupling the ballscrew shaft to the first ballnut, the first ballnut rotates in unison with the ballscrew shaft causing the second ballnut to translate relative to the first ballnut and when the locking mechanism is not coupling the ballscrew shaft to the first ballnut, the first ballnut rotates relative to the ballscrew shaft such that the ballscrew shaft translates relative to the first ballnut. a ballscrew shaft; a first ballnut engaged with the ballscrew shaft; a second ballnut engaged with the ballscrew shaft and configured to be attached to a first translatable object; a bearing fixed to the ballscrew shaft between the first ballnut and the second ballnut and configured to be coupled to a second translatable object, the bearing being fixed to the ballscrew shaft such that it does not translate relative to the ballscrew shaft; a drive mechanism operably coupled to the first ballnut that rotates the first ballnut; and a locking mechanism selectively coupling the ballscrew shaft to the first ball nut such that when the locking mechanism is coupling the ballscrew shaft to the first ballnut, the first ballnut rotates in unison with the ballscrew shaft causing the second ballnut to translate relative to the first ballnut and when the locking mechanism is not coupling the ballscrew shaft to the first ballnut, the first ballnut rotates relative to the ballscrew shaft such that the ballscrew shaft translates relative to the first ballnut.
Reducing agent metering system for injecting a reducing agent into the exhaust-gas flow of an internal combustion engine for selective catalytic reduction, the metering system being connected to a reducing agent tank from which reducing agent is extracted and delivered by means of a reducing agent pump, a compressed air supply being provided and at least one nozzle being arranged which is connected to the pressure line of the reducing agent pump and via which the reducing agent is introduced into the exhaust-gas flow and atomised by means of compressed air, the pressure line of the reducing agent pump opening via an inlet into a valve which, when pressure is applied thereto by reducing agent delivered by the reducing agent pump, releases the inlet to the valve and releases an overflow duct to an outlet of the valve to a metering line to the nozzle, characterised in that the valve has a diaphragm which, when pressure is applied thereto by reducing agent delivered by the reducing agent pump, releases the overflow duct from the inlet to the outlet of the valve, and the reverse side of the diaphragm that faces away from the inlet and the outlet is acted upon by compressed air from the compressed air supply, so that the reducing agent pump delivers against a defined counter-pressure owing to the application of pressure on the diaphragm.
A control method of a fluid device, characterized by the steps of: (a) providing the fluid device, which is integrally manufactured by a micro-electro-mechanical-system process, wherein a plurality of flow guiding units (101 to 140) are manufactured by the micro-electro-mechanical-system process and are connected to each other so as to integrally form the fluid device; (b) dividing the flow guiding units (101 to 140) into a plurality of groups (A1 to A4) so as to be controlled group by group, wherein the groups (A1 to A4) are electrically connected to a control module, and wherein any two adjacent ones of the flow guiding units (101 to 140) are controlled to be driven asynchronously; and (c) generating a driving signal by the control module for a corresponding one of the groups (A1 to A4), wherein the control module generates a high level signal to a specific one of the groups (A1 to A4), so that the flow guiding units (101 to 140) of the specific one of the groups (A1 to A4) are driven to transport fluid, and thereby controlling the fluid device to discharge a specific amount of fluid. (a) providing the fluid device, which is integrally manufactured by a micro-electro-mechanical-system process, wherein a plurality of flow guiding units (101 to 140) are manufactured by the micro-electro-mechanical-system process and are connected to each other so as to integrally form the fluid device; (b) dividing the flow guiding units (101 to 140) into a plurality of groups (A1 to A4) so as to be controlled group by group, wherein the groups (A1 to A4) are electrically connected to a control module, and wherein any two adjacent ones of the flow guiding units (101 to 140) are controlled to be driven asynchronously; and (c) generating a driving signal by the control module for a corresponding one of the groups (A1 to A4), wherein the control module generates a high level signal to a specific one of the groups (A1 to A4), so that the flow guiding units (101 to 140) of the specific one of the groups (A1 to A4) are driven to transport fluid, and thereby controlling the fluid device to discharge a specific amount of fluid.
A pharmaceutical combination for use in treating a proliferative disease selected from renal cancer, lung cancer, breast cancer, prostate cancer, and pancreatic cancer, comprising: a) a vascular disrupting agent which is a compound having the structure or a salt or solvate thereof, or or a salt or solvate thereof; and (b) at least one hypoxia targeting agent selected from Pazopanib, Bortezomib or TH-302. a) a vascular disrupting agent which is a compound having the structure or a salt or solvate thereof, or or a salt or solvate thereof; and (b) at least one hypoxia targeting agent selected from Pazopanib, Bortezomib or TH-302.
A decoder for decoding an encoded audio signal to obtain a phase-adjusted audio signal, comprising: a decoding unit; for decoding the encoded audio signal to obtain a decoded audio signal, and characterised by: a phase adjustment unit (120; 430; 560) for adjusting the decoded audio signal to obtain the phase-adjusted audio signal, wherein the phase adjustment unit (120; 430; 560) is configured to receive control information depending on a vertical phase coherence of the encoded audio signal, and wherein the phase adjustment unit (120; 430; 560) is adapted to adjust the decoded audio signal based on the control information. a decoding unit; for decoding the encoded audio signal to obtain a decoded audio signal, and characterised by: a phase adjustment unit (120; 430; 560) for adjusting the decoded audio signal to obtain the phase-adjusted audio signal, wherein the phase adjustment unit (120; 430; 560) is configured to receive control information depending on a vertical phase coherence of the encoded audio signal, and wherein the phase adjustment unit (120; 430; 560) is adapted to adjust the decoded audio signal based on the control information. a phase adjustment unit (120; 430; 560) for adjusting the decoded audio signal to obtain the phase-adjusted audio signal, wherein the phase adjustment unit (120; 430; 560) is configured to receive control information depending on a vertical phase coherence of the encoded audio signal, and wherein the phase adjustment unit (120; 430; 560) is adapted to adjust the decoded audio signal based on the control information.
A method of synthesizing a molecular sieve of *MRE framework type, the method comprising: (a) providing a reaction mixture comprising: a source of silicon oxide; optionally, a source of an oxide of a trivalent element; optionally, a source of a Group 1 or Group 2 metal; a source of hydroxide ions; a structure directing agent comprising one or more of (2hydroxyethyl)trimethylammonium cations, (2-hydroxypropyl)trimethylammonium cations, and benzyltrimethylammonium cations; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve; wherein the reaction mixture has a composition, in terms of molar ratios, as follows: SiO 2 /X 2 O 3 150 to 500 M/SiO 2 0 to 0.20 Q/SiO 2 0.15 to 0.40 OH/SiO 2 0.15 to 0.50 H 2 O/SiO 2 15 to 40. (a) providing a reaction mixture comprising: a source of silicon oxide; optionally, a source of an oxide of a trivalent element; optionally, a source of a Group 1 or Group 2 metal; a source of hydroxide ions; a structure directing agent comprising one or more of (2hydroxyethyl)trimethylammonium cations, (2-hydroxypropyl)trimethylammonium cations, and benzyltrimethylammonium cations; and water; and a source of silicon oxide; optionally, a source of an oxide of a trivalent element; optionally, a source of a Group 1 or Group 2 metal; a source of hydroxide ions; a structure directing agent comprising one or more of (2hydroxyethyl)trimethylammonium cations, (2-hydroxypropyl)trimethylammonium cations, and benzyltrimethylammonium cations; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve; wherein the reaction mixture has a composition, in terms of molar ratios, as follows: SiO 2 /X 2 O 3 150 to 500 M/SiO 2 0 to 0.20 Q/SiO 2 0.15 to 0.40 OH/SiO 2 0.15 to 0.50 H 2 O/SiO 2 15 to 40.
A first base station, BS, for handling a measurement configuration and a reporting, comprising: at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute, instructions of: transmitting a first measurement configuration to a first communication device, wherein the first measurement configuration configures a first allowed measurement bandwidth, MEAS_BW, and a location of the first allowed MEAS_BW on a first carrier; and receiving a first measurement report from the first communication device, wherein the first measurement report comprises at least one first measurement result which is measured by the first communication device according to at least one first reference signal, RS, within the first allowed MEAS_BW wherein the at least one first measurement result comprises at least one synchronization signal block, SSB, index, wherein the at least one SSB index indicates at least one SSB measured by the first communication device. at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute, instructions of: transmitting a first measurement configuration to a first communication device, wherein the first measurement configuration configures a first allowed measurement bandwidth, MEAS_BW, and a location of the first allowed MEAS_BW on a first carrier; and receiving a first measurement report from the first communication device, wherein the first measurement report comprises at least one first measurement result which is measured by the first communication device according to at least one first reference signal, RS, within the first allowed MEAS_BW wherein the at least one first measurement result comprises at least one synchronization signal block, SSB, index, wherein the at least one SSB index indicates at least one SSB measured by the first communication device. transmitting a first measurement configuration to a first communication device, wherein the first measurement configuration configures a first allowed measurement bandwidth, MEAS_BW, and a location of the first allowed MEAS_BW on a first carrier; and receiving a first measurement report from the first communication device, wherein the first measurement report comprises at least one first measurement result which is measured by the first communication device according to at least one first reference signal, RS, within the first allowed MEAS_BW wherein the at least one first measurement result comprises at least one synchronization signal block, SSB, index, wherein the at least one SSB index indicates at least one SSB measured by the first communication device.
A machine-implemented method performed on a user device, comprising: transferring a user from a user context process to a system context process upon an attempt to access a network service, wherein the user context process has fewer security protections and administrative privileges than the system context process; sending a login credential to an authentication service from the system context process; receiving a browsing token and a secure key from the authentication service in the system context process over a secure socket layer; creating an authentication proof in the system context process using the secure key; limiting the authentication proof in the system context process to at least one of a single use and an expiration time period; and providing the browsing token and the authentication proof to the user context process to send to the authentication service to be granted access to the network service. transferring a user from a user context process to a system context process upon an attempt to access a network service, wherein the user context process has fewer security protections and administrative privileges than the system context process; sending a login credential to an authentication service from the system context process; receiving a browsing token and a secure key from the authentication service in the system context process over a secure socket layer; creating an authentication proof in the system context process using the secure key; limiting the authentication proof in the system context process to at least one of a single use and an expiration time period; and providing the browsing token and the authentication proof to the user context process to send to the authentication service to be granted access to the network service.
A radio communication terminal apparatus for possible use in Coordinated Multiple Point transmission and reception, CoMP, the terminal apparatus comprising: a CoMP mode setting section configured to set the terminal apparatus into one of a CoMP mode and a Non-CoMP mode, wherein in the CoMP mode the CoMP for performing transmission and reception among a plurality of cells in a coordinated manner is to be applied, and in the Non-CoMP mode the CoMP is not to be applied; the terminal apparatus characterized by comprising: a hopping pattern calculation section configured to include a plurality of different hopping patterns having a first hopping pattern and a second hopping pattern for hopping a Zadoff-Chu, ZC, sequence number used for a reference signal, and calculate the ZC sequence number using one of the plurality of hopping patterns, the first hopping pattern being used when the CoMP is set by the CoMP mode setting section, and the second hopping pattern being used when the Non-CoMP mode is set by the CoMP mode setting section; and a ZC sequence generation section configured to generate a ZC sequence using the calculated ZC sequence number. a CoMP mode setting section configured to set the terminal apparatus into one of a CoMP mode and a Non-CoMP mode, wherein in the CoMP mode the CoMP for performing transmission and reception among a plurality of cells in a coordinated manner is to be applied, and in the Non-CoMP mode the CoMP is not to be applied; the terminal apparatus characterized by comprising: a hopping pattern calculation section configured to include a plurality of different hopping patterns having a first hopping pattern and a second hopping pattern for hopping a Zadoff-Chu, ZC, sequence number used for a reference signal, and calculate the ZC sequence number using one of the plurality of hopping patterns, the first hopping pattern being used when the CoMP is set by the CoMP mode setting section, and the second hopping pattern being used when the Non-CoMP mode is set by the CoMP mode setting section; and a ZC sequence generation section configured to generate a ZC sequence using the calculated ZC sequence number. a hopping pattern calculation section configured to include a plurality of different hopping patterns having a first hopping pattern and a second hopping pattern for hopping a Zadoff-Chu, ZC, sequence number used for a reference signal, and calculate the ZC sequence number using one of the plurality of hopping patterns, the first hopping pattern being used when the CoMP is set by the CoMP mode setting section, and the second hopping pattern being used when the Non-CoMP mode is set by the CoMP mode setting section; and a ZC sequence generation section configured to generate a ZC sequence using the calculated ZC sequence number.
A peptide a) consisting of the amino acid sequence of SEQ ID NO: 40 or b) comprising an amino acid sequence according to SEQ ID NO: 40, wherein said peptide has an overall length of up to 14 amino acids, and has the ability to bind to a molecule of the human major histocompatibility complex class-I, or a pharmaceutically acceptable salt of a) or b).
An assembly for use with a trimmer, the assembly comprising: a body (14; 14') being rotatable about an axis and defining an annular channel (22; 22') for removably receiving an attachment (100; 100'), an attachment (100; 100') including an attachment body (104; 104') extending about the axis and positionable in the channel (22; 22') and an attachment operation member projecting radially from the attachment body, and a retainer (26; 26') radially movable between a retaining position, in which the retainer (26; 26') overlaps the channel (22; 22') to selectively retain the attachment (100; 100') when the attachment (100; 100') is supported on the body (14; 14'), and a release position, in which the retainer (26; 26') axially opens the channel (22; 22') and relative axial movement of the attachment (22; 22') and the body (14; 14') is allowed. a body (14; 14') being rotatable about an axis and defining an annular channel (22; 22') for removably receiving an attachment (100; 100'), an attachment (100; 100') including an attachment body (104; 104') extending about the axis and positionable in the channel (22; 22') and an attachment operation member projecting radially from the attachment body, and a retainer (26; 26') radially movable between a retaining position, in which the retainer (26; 26') overlaps the channel (22; 22') to selectively retain the attachment (100; 100') when the attachment (100; 100') is supported on the body (14; 14'), and a release position, in which the retainer (26; 26') axially opens the channel (22; 22') and relative axial movement of the attachment (22; 22') and the body (14; 14') is allowed.