mhurhangee/ep-ind-claims huggingface dataset:
An operating system management method, applied to an electronic device, wherein the electronic device comprises a processor and a memory, the memory comprises a basic partition, wherein data stored in the basic partition is system data that is not related to operating system upgrade, a first static partition, a second static partition, a dynamic partition, and a user data partition, wherein the user data partition is used to store personal data of a user, and the method comprises: loading data in the basic partition, the first static partition, and the dynamic partition to run a first operating system (S300, S700); obtaining an upgrade installation package (S310, S710), wherein the upgrade installation package comprises first data and second data; creating a virtual dynamic partition in the user data partition (S330, S730), and storing the first data in the virtual dynamic partition; writing the second data into the second static partition (S320, S720); restarting the electronic device (S332, S732), and determining that a current startup sequence is starting from the second static partition; loading data in the basic partition (S340, S740); loading data in the second static partition (S340, S750); loading data in the dynamic partition, and loading the first data in the virtual dynamic partition (S341, S760); and merging the first data in the user data partition into the dynamic partition (S351, S771), wherein the first data stored in the virtual dynamic partition in the user data partition is written into the dynamic partition, wherein after the restarting the electronic device, and determining that a current startup sequence is starting from the second static partition, the method further comprises: synchronizing the data in the second static partition to the first static partition (S360, S753). loading data in the basic partition, the first static partition, and the dynamic partition to run a first operating system (S300, S700); obtaining an upgrade installation package (S310, S710), wherein the upgrade installation package comprises first data and second data; creating a virtual dynamic partition in the user data partition (S330, S730), and storing the first data in the virtual dynamic partition; writing the second data into the second static partition (S320, S720); restarting the electronic device (S332, S732), and determining that a current startup sequence is starting from the second static partition; loading data in the basic partition (S340, S740); loading data in the second static partition (S340, S750); loading data in the dynamic partition, and loading the first data in the virtual dynamic partition (S341, S760); and merging the first data in the user data partition into the dynamic partition (S351, S771), wherein the first data stored in the virtual dynamic partition in the user data partition is written into the dynamic partition, wherein after the restarting the electronic device, and determining that a current startup sequence is starting from the second static partition, the method further comprises: synchronizing the data in the second static partition to the first static partition (S360, S753).
Power plant with an electrolysis device, which produces hydrogen and oxygen while consuming part of the electrical energy generated by the power plant, wherein the power plant has devices (8-11; 14, 15) for recycling the produced oxygen, characterized in that the devices (8-11; 14, 15) for recycling the produced oxygen comprise conducting devices (8, 11) for conducting the oxygen into a region of the combustion chamber of a steam generator fired by a carbon-dust/air mixture which is undersupplied with oxygen and in which a flame front reaches a wall of the combustion chamber during the operation of the power plant.
A method for controlling a radio transmitter in a wireless network, the method comprising: in each one of a plurality of consecutive control steps spanning a predetermined control window, determining a first limit representing a number of physical resource blocks, PRBs, that can be scheduled in each one of a plurality of consecutive future slots of a current control step, based at least in part on an allowable average output power of the radio transmitter, the control window comprising a plurality of control steps, and each control step comprising a plurality of slots; when the determined first limit is less than or equal to a pre-configured second limit representing a number of PRBs that can be scheduled in a single slot, scheduling PRBs in a proportion of the plurality of consecutive future slots of the current control step, the proportion being calculated such that an averaged fraction of scheduled PRBs in the current control step is less than or equal to the first limit, wherein the first limit comprises a respective first fraction of a total number of PRBs of the wireless network, and wherein the second limit comprises a respective second fraction of a total number of PRBs of the wireless network. in each one of a plurality of consecutive control steps spanning a predetermined control window, determining a first limit representing a number of physical resource blocks, PRBs, that can be scheduled in each one of a plurality of consecutive future slots of a current control step, based at least in part on an allowable average output power of the radio transmitter, the control window comprising a plurality of control steps, and each control step comprising a plurality of slots; when the determined first limit is less than or equal to a pre-configured second limit representing a number of PRBs that can be scheduled in a single slot, scheduling PRBs in a proportion of the plurality of consecutive future slots of the current control step, the proportion being calculated such that an averaged fraction of scheduled PRBs in the current control step is less than or equal to the first limit, wherein the first limit comprises a respective first fraction of a total number of PRBs of the wireless network, and wherein the second limit comprises a respective second fraction of a total number of PRBs of the wireless network.
A method of forming a composite structure comprising adding a first material into a die having a cavity (300,400), wherein the cavity includes at least one protrusion within the cavity (100,200), and curing the first material to form a three dimensional body; wherein the die is removed during the curing of the first material, thereby leaving at least one void where the at least one protrusion (100,200) once existed; characterised by adding a binder material to the at least one void after curing the first material; further comprising adding at least one other material into the at least one void, wherein the at least one other material is a ceramic material added by injection.
A terminal comprising: a notification unit configured to transmit, to a base station apparatus, UE capability including information indicating a supported frequency band and information indicating a power class and spherical coverage in the frequency band; a receiving unit configured to receive, from the base station apparatus, information on power control; and a transmitting unit configured to transmit, to the base station apparatus, an uplink transmission signal to which transmit power control based on at least one of the information on power control or the power class is applied, wherein the spherical coverage is defined by an Equivalent Isotropic Radiated Power, EIRP, value at a given percentile value of a Cumulative Distribution Function, CDF, representing spherically radiated power. a notification unit configured to transmit, to a base station apparatus, UE capability including information indicating a supported frequency band and information indicating a power class and spherical coverage in the frequency band; a receiving unit configured to receive, from the base station apparatus, information on power control; and a transmitting unit configured to transmit, to the base station apparatus, an uplink transmission signal to which transmit power control based on at least one of the information on power control or the power class is applied, wherein the spherical coverage is defined by an Equivalent Isotropic Radiated Power, EIRP, value at a given percentile value of a Cumulative Distribution Function, CDF, representing spherically radiated power.
A method for controlling a heating apparatus comprising at least one CO 2 sensor used to detect the presence of user(s) and at least one other absence/presence detector chosen from among an infrared movement sensor, an ultrasound or sound movement sensor or a combination of these sensors, the heating apparatus further comprising a control module and a heating means, such that the control method comprises the following steps: - periodically querying the at least one CO 2 sensor and the at least one absence/presence detector regarding a detection of the presence of user(s); and - actuating the heating means when at least one among the at least one CO 2 sensor and the at least one absence/presence detector detects a presence of user(s). - periodically querying the at least one CO 2 sensor and the at least one absence/presence detector regarding a detection of the presence of user(s); and - actuating the heating means when at least one among the at least one CO 2 sensor and the at least one absence/presence detector detects a presence of user(s).
An irrigation system for irrigating a field divided into zones, the zones being arranged in columns extending alongside each other and defining field strips, and the system comprising irrigation strips and a plurality of control heads communicating with an upstream end of each irrigation strip, each irrigation strip providing irrigation substances to a respective field strip and each control head controlling downstream flow towards its irrigation strip characterised in that each control head being configured to control provision of irrigation substances to distinct zones in the strip, wherein at least some of the zones define a matrix comprising rows and columns of zones, and all control heads are located alongside a row at a boundary of the matrix.
A photomask comprising: a first unit including a first shielding mask pattern provided on a first substrate, wherein the surface of the first unit provided with the first shielding mask pattern is defined as a first surface; an intermediate layer provided on the first surface; a second unit provided on the intermediate layer, the second unit including a second shielding mask pattern provided on a second substrate, wherein the surface of the second unit provided with the second shielding mask pattern is defined as a second surface; and a transparent planarization layer located on the surface of the second unit opposite to the surface provided with the intermediate layer, characterized in that the first substrate and the second substrate are each flexible substrates, and in that the intermediate layer and the transparent planarization layer include the same siloxane-based resin. a first unit including a first shielding mask pattern provided on a first substrate, wherein the surface of the first unit provided with the first shielding mask pattern is defined as a first surface; an intermediate layer provided on the first surface; a second unit provided on the intermediate layer, the second unit including a second shielding mask pattern provided on a second substrate, wherein the surface of the second unit provided with the second shielding mask pattern is defined as a second surface; and a transparent planarization layer located on the surface of the second unit opposite to the surface provided with the intermediate layer, characterized in that the first substrate and the second substrate are each flexible substrates, and in that the intermediate layer and the transparent planarization layer include the same siloxane-based resin.
An immunogenic composition comprising: a) A polypeptide comprising an isolated Clostridium difficile toxin A fragment and an isolated C. difficile toxin B fragment wherein the polypeptide comprises a toxin A repeating domain fragment and a toxin B repeating domain fragment; and b) an adjuvant comprising an oil in water emulsion, wherein said oil in water emulsion comprises a metabolisable oil, a tocol and an emulsifier; wherein the immunogenic composition is in a volume suitable for human dose, which volume is 0.5ml or higher than 0.5 ml, for example 0.6, 0.7, 0.8, 0.9 or 1 ml, or between 1 ml and 1.5 ml. a) A polypeptide comprising an isolated Clostridium difficile toxin A fragment and an isolated C. difficile toxin B fragment wherein the polypeptide comprises a toxin A repeating domain fragment and a toxin B repeating domain fragment; and b) an adjuvant comprising an oil in water emulsion, wherein said oil in water emulsion comprises a metabolisable oil, a tocol and an emulsifier;
A skin preparation device comprising: a base member in the shape of a ring; an array of rigid tines contiguous with the base member, each tine having a sharp tip adapted to penetrate the stratum corneum; and a separate gel storage container coupled to the base member, wherein the gel storage container is a burst container adapted to release the gel when pressed upon. a base member in the shape of a ring; an array of rigid tines contiguous with the base member, each tine having a sharp tip adapted to penetrate the stratum corneum; and a separate gel storage container coupled to the base member, wherein the gel storage container is a burst container adapted to release the gel when pressed upon.
A display panel substrate comprising: an active region and a panel frame region outside the active region; a plurality of data signal lines in the active region; and a line bundle including a plurality of drawing lines in the panel frame region; wherein the line bundle has a taper shape tapering towards the edge of the display panel substrate; wherein each of the drawing lines, except for the ones farthest from the center of the line bundle, is provided with a zigzag portion, wherein each of the drawing lines is electrically connected to a respective one of the data signal lines; wherein the zigzag portion of the drawing line in the center of the line bundle is longer than the zigzag portion of the drawing lines farther from the center of the line bundle; characterised by an insulating film; a plurality of strip conductors; and a plurality of connecting portions (1264, 1265, 1266); wherein the zigzag portion of each of the drawing lines overlaps with one or more strip conductors with the insulating film sandwiched therebetween; wherein the number of the strip conductors which overlap with one drawing line is larger in the center of the line bundle than in the farther positions from the center of the line bundle; wherein the drawing lines farthest from the center of the line bundle do not overlap with the strip conductors; and wherein the connecting portions (1264, 1265, 1263) are arranged to electrically connect the strip conductors to one another, the connecting portions (1264, 1265, 1263) comprising portions intersecting with the drawing lines in the zigzag portions. an active region and a panel frame region outside the active region; a plurality of data signal lines in the active region; and a line bundle including a plurality of drawing lines in the panel frame region; wherein the line bundle has a taper shape tapering towards the edge of the display panel substrate; wherein each of the drawing lines, except for the ones farthest from the center of the line bundle, is provided with a zigzag portion, wherein each of the drawing lines is electrically connected to a respective one of the data signal lines; wherein the zigzag portion of the drawing line in the center of the line bundle is longer than the zigzag portion of the drawing lines farther from the center of the line bundle; characterised by an insulating film; a plurality of strip conductors; and a plurality of connecting portions (1264, 1265, 1266); wherein the zigzag portion of each of the drawing lines overlaps with one or more strip conductors with the insulating film sandwiched therebetween; wherein the number of the strip conductors which overlap with one drawing line is larger in the center of the line bundle than in the farther positions from the center of the line bundle; wherein the drawing lines farthest from the center of the line bundle do not overlap with the strip conductors; and wherein the connecting portions (1264, 1265, 1263) are arranged to electrically connect the strip conductors to one another, the connecting portions (1264, 1265, 1263) comprising portions intersecting with the drawing lines in the zigzag portions.
A pipe diagnostic system for non-intrusively diagnosing an internal state of a pipe wall comprising: a sensor capsule configured to be coupled to an exterior surface of a pipe, the sensor capsule having at least one temperature sensitive element disposed therein; measurement circuitry coupled to the sensor capsule and configured to measure an electrical characteristic of the at least one temperature sensitive element and provide an indication of the measurement; a controller coupled to the measurement circuitry, characterised in that: the controller is configured to obtain a transmitter reference temperature measurement, being a temperature measurement obtained relative to a location having a fixed thermal impedance from the temperature sensitive element, and employ a heat transfer calculation with the transmitter reference temperature measurement and the indication to generate an estimated process fluid temperature; and wherein the controller is further configured to obtain an indication of process fluid temperature and provide a pipe diagnostic indication based on a comparison of the estimated process fluid temperature and the obtained indication of process fluid temperature. a sensor capsule configured to be coupled to an exterior surface of a pipe, the sensor capsule having at least one temperature sensitive element disposed therein; measurement circuitry coupled to the sensor capsule and configured to measure an electrical characteristic of the at least one temperature sensitive element and provide an indication of the measurement; a controller coupled to the measurement circuitry, characterised in that: the controller is configured to obtain a transmitter reference temperature measurement, being a temperature measurement obtained relative to a location having a fixed thermal impedance from the temperature sensitive element, and employ a heat transfer calculation with the transmitter reference temperature measurement and the indication to generate an estimated process fluid temperature; and wherein the controller is further configured to obtain an indication of process fluid temperature and provide a pipe diagnostic indication based on a comparison of the estimated process fluid temperature and the obtained indication of process fluid temperature. the controller is configured to obtain a transmitter reference temperature measurement, being a temperature measurement obtained relative to a location having a fixed thermal impedance from the temperature sensitive element, and employ a heat transfer calculation with the transmitter reference temperature measurement and the indication to generate an estimated process fluid temperature; and wherein the controller is further configured to obtain an indication of process fluid temperature and provide a pipe diagnostic indication based on a comparison of the estimated process fluid temperature and the obtained indication of process fluid temperature.
Tool basic module, in particular for independent use, with a drive unit, with a transmission unit for adjusting a rotational speed of the drive unit, with a main output (14a; 14b) and with a coupling device which has a mechanical interface (16a; 16b; 16c; 16d; 16e; 16f; 16g; 16h) for a mechanical drive connection of at least one attachment device (18a, 20a, 22a; 18e; 18f; 18g; 18h) to the main output (14a; 14b), characterized in that the coupling device has an electrical interface (90a; 90b; 90c; 90d; 90e; 90f; 90g; 90h) for transmitting a high power and/or a high current, and which is provided for an electrical connection, coupled to the mechanical connection, of the at least one attachment device (18a, 20a, 22a; 18e; 18f; 18g; 18h) to the main output (14a; 14b).
A method for processing a membrane comprising rolling circle amplification products, comprising: (a) obtaining a porous capillary membrane that comprises fluorescently labeled RCA products that are in or on the membrane; (b) depositing a curable polymer onto the membrane; and (c) curing the curable polymer into a solid to encapsulate the RCA products. (a) obtaining a porous capillary membrane that comprises fluorescently labeled RCA products that are in or on the membrane; (b) depositing a curable polymer onto the membrane; and (c) curing the curable polymer into a solid to encapsulate the RCA products.
A method for notifying a wireless access point service virtual provider, comprising: receiving, by an access point AP, a query message sent by a user equipment UE, wherein the query message carries an indication of information about a home operator of the UE; and sending, by the AP, a response message to the UE, wherein the response message carries an indication of information about the AP access service operator, wherein if the home operator of the UE uses a hotspot virtualization technology on the AP, the information about the AP access service operator is the information about the home operator of the UE, so that the UE preferentially selects a network of the home operator to access a communications network by using the AP. receiving, by an access point AP, a query message sent by a user equipment UE, wherein the query message carries an indication of information about a home operator of the UE; and sending, by the AP, a response message to the UE, wherein the response message carries an indication of information about the AP access service operator, wherein if the home operator of the UE uses a hotspot virtualization technology on the AP, the information about the AP access service operator is the information about the home operator of the UE, so that the UE preferentially selects a network of the home operator to access a communications network by using the AP.
Piston ring with at least one running surface and flank surfaces which are coated, wherein the top layer of the running surface is a hydrogen-containing or hydrogen-free DLC coating, characterised in that the top layer of at least one, preferably the lower, flank surface is a chrome layer, wherein there is, at least in some areas, a chrome layer below the DLC coating, wherein the DLC coating at least partially overlaps the chrome layer in the region of the circumferential edges and wherein the chrome layer thins out towards the circumferential edge.
A thermoplastic polycarbonate composition comprising the following components, relative to the total weight of the composition: A) 24 - 70 wt.% of an aromatic polycarbonate not being a polysiloxane-polycarbonate copolymer, B) 15 - 50 wt.% of a polysiloxane-polycarbonate copolymer, and C) 12 - 37 wt.% of an amorphous copolyester comprising 1,4-cyclohexanedimethylene terephthalate repeating units having the structure and 2,2,4,4-tetramethyl-1,3-cyclobutylene terephthalate repeating units having the structure wherein * indicates the position where the unit is connected to the polymer chain and wherein the total content by weight of components A)-C) is not less than 95 wt.%, relative to the total weight of the composition. A) 24 - 70 wt.% of an aromatic polycarbonate not being a polysiloxane-polycarbonate copolymer, B) 15 - 50 wt.% of a polysiloxane-polycarbonate copolymer, and C) 12 - 37 wt.% of an amorphous copolyester comprising 1,4-cyclohexanedimethylene terephthalate repeating units having the structure and 2,2,4,4-tetramethyl-1,3-cyclobutylene terephthalate repeating units having the structure wherein * indicates the position where the unit is connected to the polymer chain and wherein the total content by weight of components A)-C) is not less than 95 wt.%, relative to the total weight of the composition.