mhurhangee/ep-ind-claims huggingface dataset:
A method of loading information into a slave processor in a multi-processor system that includes a master processor and the slave processor, the information including a bootloader, comprising the steps of: a) resetting the slave processor and holding the slave processor in a reset state; b) pushing a first part of the information into a first memory that is accessible by the master processor and the slave processor, the first part of the information including the bootloader; c) booting the slave processor; d) starting an operating system in the slave processor, including blocking scheduling of processes having program code located in a second memory that is accessible by the slave processor and inaccessible by the master processor; e) reserving an intermediate storage area in the first memory; f) sending to the master processor information about a location and size of the intermediate storage area reserved; g) based on the sent information, loading the intermediate storage area with a second part of the information to be loaded into the second memory; h) sending a first message to the slave processor that indicates the intermediate storage area has been loaded and whether loading is finished or more information is to be loaded; i) copying information in the intermediate storage area to the second memory; j) sending a second message to the master processor that indicates that information in the intermediate storage area has been copied; and k) releasing the blocking of scheduling of processes having program code located in the second memory. a) resetting the slave processor and holding the slave processor in a reset state; b) pushing a first part of the information into a first memory that is accessible by the master processor and the slave processor, the first part of the information including the bootloader; c) booting the slave processor; d) starting an operating system in the slave processor, including blocking scheduling of processes having program code located in a second memory that is accessible by the slave processor and inaccessible by the master processor; e) reserving an intermediate storage area in the first memory; f) sending to the master processor information about a location and size of the intermediate storage area reserved; g) based on the sent information, loading the intermediate storage area with a second part of the information to be loaded into the second memory; h) sending a first message to the slave processor that indicates the intermediate storage area has been loaded and whether loading is finished or more information is to be loaded; i) copying information in the intermediate storage area to the second memory; j) sending a second message to the master processor that indicates that information in the intermediate storage area has been copied; and k) releasing the blocking of scheduling of processes having program code located in the second memory.
Clinoptilolite having a particle size between 0.2 and 1 μm for use in the treatment of inflammatory bowel disease, also termed IBD, in mammals and humans.
Inside door handle system for a door of a vehicle, wherein the door can be brought into a locking state and into an unlocking state by a locking system, comprising: an actuating element for actuating the locking system, and at least one carrier connectable to the door, on which the actuating element is arranged, and further comprising: at least one sensor element which supplies a detection signal when an object approaches its detection region, wherein a release mode is provided for the locking system, in which the locking system is in the unlocking state, in which the actuation of the actuating element successfully effects an opening function of the door, wherein a control unit can be brought into data communication with the locking system and the sensor element, wherein the control unit converts the locking system into the release mode depending on an existing detection signal and a vehicle-side release signal, characterized in that the actuating element is arranged within the detection region of the sensor element, wherein the sensor element is formed by a wire (40.1) which can be arranged as a double loop (40.2, 40.3) at least partially circumferentially on the carrier. an actuating element for actuating the locking system, and at least one carrier connectable to the door, on which the actuating element is arranged, and further comprising: at least one sensor element which supplies a detection signal when an object approaches its detection region, wherein a release mode is provided for the locking system, in which the locking system is in the unlocking state, in which the actuation of the actuating element successfully effects an opening function of the door, wherein a control unit can be brought into data communication with the locking system and the sensor element, wherein the control unit converts the locking system into the release mode depending on an existing detection signal and a vehicle-side release signal, characterized in that the actuating element is arranged within the detection region of the sensor element, wherein the sensor element is formed by a wire (40.1) which can be arranged as a double loop (40.2, 40.3) at least partially circumferentially on the carrier. at least one sensor element which supplies a detection signal when an object approaches its detection region, wherein a release mode is provided for the locking system, in which the locking system is in the unlocking state, in which the actuation of the actuating element successfully effects an opening function of the door, wherein a control unit can be brought into data communication with the locking system and the sensor element, wherein the control unit converts the locking system into the release mode depending on an existing detection signal and a vehicle-side release signal, characterized in that the actuating element is arranged within the detection region of the sensor element, wherein the sensor element is formed by a wire (40.1) which can be arranged as a double loop (40.2, 40.3) at least partially circumferentially on the carrier.
A turbomachine having gas cooled bearings (20, 22, 24 and 30) comprising an axially-oriented, cooling-gas passageway interconnecting first and second bearing chambers (40, 48), the cooling-gas passageway passing axially along an interior of a shaft assembly, characterized in that: the cooling-gas passageway includes one or more grooves formed at an interface between a wheel of a turbine or an impeller (12-1, 14-1) of the turbomachine and a portion of the shaft assembly of the turbomachine; and the one or more grooves allow the cooling gas to flow past the wheel of the turbine or the impeller (12-1, 14-1) wherein the wheel of the turbine or the impeller (12-1, 14-1) is tightly engaged with an enlarged portion of a tie rod of the shaft assembly. the cooling-gas passageway includes one or more grooves formed at an interface between a wheel of a turbine or an impeller (12-1, 14-1) of the turbomachine and a portion of the shaft assembly of the turbomachine; and the one or more grooves allow the cooling gas to flow past the wheel of the turbine or the impeller (12-1, 14-1) wherein the wheel of the turbine or the impeller (12-1, 14-1) is tightly engaged with an enlarged portion of a tie rod of the shaft assembly.
A method to reduce spray drift during the application of an aqueous herbicidal spray mixture containing glyphosate and an auxinic herbicide comprising incorporating into the aqueous herbicidal spray mixture from about 0.02 to about 2 weight percent of one of a tertiary amine surfactant of the formula: wherein R 1 represents a straight or branched chain (C 12 -C 18) alkyl and R 2 and R 3 represent C 1 -alkyl, or a mixture of said tertiary amine surfactant with a tertiary amine oxide surfactant of the formula: wherein R 4 is a straight or branched chain (C 10 -C 18) alkyl or an alkyletherpropyl or alkylamidopropyl of the formula: wherein R 7 is a straight or branched chain (C 10 -C 18) alkyl, and R 5 and R 6 independently are straight or branched chain (C 1 -C 18) alkyl or ethoxylates or propoxylates of the formula: wherein n is an integer from 1 to 20.
Method of manufacturing nano pulp, wherein cellulose containing raw material is accelerated in a continuous gas and/or liquid flow, wherein the cellulose containing raw material is heated in a reactor until an elevated pressure builds up, and the gas and/or liquid flow is created by reduction of the elevated pressure, whereby the material is disintegrated and nano pulp, being cellulose containing material disintegrated into fibrils and particles with cross section diameters in the interval of from 10 nm to 250 nm, is produced.
Method for identifying RF interference in imaging of a magnetic resonance tomography system by - performance of an acquisition, in which a scan of a k-space along a trajectory takes place, wherein an angle of rotation α exists between a scan start position of a first individual acquisition and a scan start position of a following second individual acquisition, and - capture of a first image from the first individual acquisition and of a second image from the second individual acquisition, characterised by - rotation of one of the two images in respect of the other image about the angle of rotation α, such that the rotation is reversed in the image plane, - determination of a correlation between the one rotated image and the other image and - identification of a point of interference, caused by the RF interference, from the correlation. - performance of an acquisition, in which a scan of a k-space along a trajectory takes place, wherein an angle of rotation α exists between a scan start position of a first individual acquisition and a scan start position of a following second individual acquisition, and - capture of a first image from the first individual acquisition and of a second image from the second individual acquisition, characterised by - rotation of one of the two images in respect of the other image about the angle of rotation α, such that the rotation is reversed in the image plane, - determination of a correlation between the one rotated image and the other image and - identification of a point of interference, caused by the RF interference, from the correlation.
A Bluetooth device connection method, comprising: generating, by a first Bluetooth device, an additional code; encrypting, by the first Bluetooth device, the additional code to generate a first ciphertext after it is detected that a Bluetooth connection is disconnected; generating, by the first Bluetooth device, a Bluetooth protocol-based broadcast packet based on the first ciphertext, and sending the broadcast packet to a second Bluetooth device; receiving, by the first Bluetooth device, a scanning request from the second Bluetooth device; sending, by the first Bluetooth device, a Bluetooth protocol-based scanning response to the second Bluetooth device based on a random private address comprised in the scanning request, wherein the random private address is an address generated by the second Bluetooth device for the scanning request; and establishing, by the first Bluetooth device, a Bluetooth connection to the second Bluetooth device when a connection request sent by the second Bluetooth device is received. generating, by a first Bluetooth device, an additional code; encrypting, by the first Bluetooth device, the additional code to generate a first ciphertext after it is detected that a Bluetooth connection is disconnected; generating, by the first Bluetooth device, a Bluetooth protocol-based broadcast packet based on the first ciphertext, and sending the broadcast packet to a second Bluetooth device; receiving, by the first Bluetooth device, a scanning request from the second Bluetooth device; sending, by the first Bluetooth device, a Bluetooth protocol-based scanning response to the second Bluetooth device based on a random private address comprised in the scanning request, wherein the random private address is an address generated by the second Bluetooth device for the scanning request; and establishing, by the first Bluetooth device, a Bluetooth connection to the second Bluetooth device when a connection request sent by the second Bluetooth device is received.
A method for controlling energy supply to different units, wherein each unit is connected to multiple utilities for receiving energy for operating its energy systems, wherein a demand request signal is provided by at least one energy planning entity or by at least one unit and/or by at least one utility for requesting a demand modification of a utility and/or of one form of energy, and wherein an aggregator receives the demand request signal and performs an allocation of the requested demand modification to the units based on a negotiating process with the units for minimizing an impact of said allocation on a future operation of another utility or of other utilities, wherein the negotiating process considers a prediction and/or a probability of one or more possible future demand modification requests of said utility and/or another utility or of other utilities.
A fan for generating an air current, comprising: a body comprising an air inlet; and a nozzle connected to the body; the nozzle comprising an interior passage for receiving an air flow from the body and at least one air outlet from which the air flow is emitted from the fan, the interior passage extending about an opening through which air from outside the nozzle is drawn by air emitted from said at least one air outlet; the body comprising a duct having an air inlet and an air outlet, an impeller located within the duct for drawing the air flow through the duct, and a motor for rotating the impeller about a rotational axis, the body defining an air flow path extending from the air inlet of the body to the air outlet of the duct; wherein the body further comprises annular guide means extending about the duct for guiding air from the air inlet of the body to the air inlet of the duct, and wherein the annular guide means is spaced from an external surface of the duct to define with the duct an annular noise suppression cavity, characterised in that an inlet of the annular noise suppression cavity is at least partially defined by the annular guide means and being located between the air inlet of the duct and the annular guide means, and wherein the duct is mounted on an annular seat located within the body, the body comprising a foam annular seal in sealing engagement with the duct and the seat. a body comprising an air inlet; and a nozzle connected to the body; the nozzle comprising an interior passage for receiving an air flow from the body and at least one air outlet from which the air flow is emitted from the fan, the interior passage extending about an opening through which air from outside the nozzle is drawn by air emitted from said at least one air outlet; the body comprising a duct having an air inlet and an air outlet, an impeller located within the duct for drawing the air flow through the duct, and a motor for rotating the impeller about a rotational axis, the body defining an air flow path extending from the air inlet of the body to the air outlet of the duct; wherein the body further comprises annular guide means extending about the duct for guiding air from the air inlet of the body to the air inlet of the duct, and wherein the annular guide means is spaced from an external surface of the duct to define with the duct an annular noise suppression cavity, characterised in that an inlet of the annular noise suppression cavity is at least partially defined by the annular guide means and being located between the air inlet of the duct and the annular guide means, and wherein the duct is mounted on an annular seat located within the body, the body comprising a foam annular seal in sealing engagement with the duct and the seat.
A method of indicating radio resources in accordance with a radio resource allocation mode to a mobile radio communications device that supports device to device communication within a wireless communication network environment, wherein the mobile radio communications device can operate in two modes for resource allocation for device to device communication, the two modes comprising a scheduled resource allocation mode and an autonomous resource selection mode, and wherein the mobile radio communication device is configured to use scheduled resource allocation for device to device communication, the method including the steps of: signalling from a base station to the mobile radio communications device first configuration data identifying a pool of radio resources that the mobile radio communications device is allowed to use in the autonomous resource selection mode, when at least one condition is met, for the device to device communication, and second configuration data defining a time period; the mobile radio communications device moving to using said autonomous resource selection for device to device communication when the at least one condition is met, using said pool identified by said first configuration data, when currently configured to use scheduled resource allocation for device to device communication; wherein said mobile radio communications device uses said pool identified by said first configuration data for the time period defined by second configuration data signaled by the base station. signalling from a base station to the mobile radio communications device first configuration data identifying a pool of radio resources that the mobile radio communications device is allowed to use in the autonomous resource selection mode, when at least one condition is met, for the device to device communication, and second configuration data defining a time period; the mobile radio communications device moving to using said autonomous resource selection for device to device communication when the at least one condition is met, using said pool identified by said first configuration data, when currently configured to use scheduled resource allocation for device to device communication; wherein said mobile radio communications device uses said pool identified by said first configuration data for the time period defined by second configuration data signaled by the base station.
A method of transmitting packets wirelessly, the method comprising, for each packet: requesting to transmit the packet; waiting for a respective random or pseudorandom time period before transmitting the packet; and transmitting the packet containing a respective data portion, wherein a payload of the packet contains the respective data portion, and the position of the respective data portion in the packet comprises a predetermined position in the payload shifted by the respective random or pseudorandom time period to compensate for the delay of the respective random or pseudorandom time period waited before transmitting the packet such that a time interval between transmission of respective data portions in adjacent packets is a constant time interval. requesting to transmit the packet; waiting for a respective random or pseudorandom time period before transmitting the packet; and transmitting the packet containing a respective data portion, wherein a payload of the packet contains the respective data portion, and the position of the respective data portion in the packet comprises a predetermined position in the payload shifted by the respective random or pseudorandom time period to compensate for the delay of the respective random or pseudorandom time period waited before transmitting the packet such that a time interval between transmission of respective data portions in adjacent packets is a constant time interval.
A method for transmitting a signal by a secondary node in a wireless communication system, comprising: receiving a scheduling map from one of a scheduling node and a master node; performing scheduling and transmit, Tx, power control on the basis of the scheduling map; and transmitting a signal on the basis of the scheduling and Tx power control result, wherein, when the secondary node transmits each of control information and data in a discontinuous frequency domain within a component carrier, CC, the Tx power control includes coordination of a first maximum Tx power of the control information and coordination of a second maximum Tx power of the data; wherein the coordination of the first maximum Tx power and the coordination of the second maximum Tx power are performed based on interference on adjacent component carrier of the component carrier; wherein the Tx power control further includes limiting a difference between the first maximum Tx power after coordination and the second maximum Tx power after coordination, such that a difference between the first maximum Tx power after coordination and the second maximum Tx power after coordination is equal to or less than a specific value, said specific value being determined in consideration of an interference generated in the data by transmission of the control information. receiving a scheduling map from one of a scheduling node and a master node; performing scheduling and transmit, Tx, power control on the basis of the scheduling map; and transmitting a signal on the basis of the scheduling and Tx power control result, wherein, when the secondary node transmits each of control information and data in a discontinuous frequency domain within a component carrier, CC, the Tx power control includes coordination of a first maximum Tx power of the control information and coordination of a second maximum Tx power of the data; wherein the coordination of the first maximum Tx power and the coordination of the second maximum Tx power are performed based on interference on adjacent component carrier of the component carrier; wherein the Tx power control further includes limiting a difference between the first maximum Tx power after coordination and the second maximum Tx power after coordination, such that a difference between the first maximum Tx power after coordination and the second maximum Tx power after coordination is equal to or less than a specific value, said specific value being determined in consideration of an interference generated in the data by transmission of the control information.
A method for configurable address mapping and protection architecture for an on-chip-system device, comprising at least one processing unit and at least one service module, characterized by: inputting configuration parameters; inputting protection parameters, wherein the protection parameters are a number of different protection keys, each address region is associated with at least one protection key, and a number of different protection IDs, each processing unit is assigned with one or more protection ID; determining whether a request from a first processing unit in the device should be passed on to the service module and executed based upon the inputted protection parameters and the first address location of the service module, wherein the configuration parameters are received at design time and determine the amount of segment registers, region registers, and protection key registers that will be implemented in hardware for the on-chip system. inputting configuration parameters; inputting protection parameters, wherein the protection parameters are a number of different protection keys, each address region is associated with at least one protection key, and a number of different protection IDs, each processing unit is assigned with one or more protection ID; determining whether a request from a first processing unit in the device should be passed on to the service module and executed based upon the inputted protection parameters and the first address location of the service module, wherein the configuration parameters are received at design time and determine the amount of segment registers, region registers, and protection key registers that will be implemented in hardware for the on-chip system.