mhurhangee/ep-ind-claims huggingface dataset:
A process comprising: (a) providing a concentration device comprising a sintered porous polymer matrix comprising at least one concentration agent that comprises diatomaceous earth bearing, on at least a portion of its surface, a surface treatment comprising a surface modifier comprising ferric oxide, titanium dioxide, fine-nanoscale gold or platinum, or a combination thereof, wherein said at least one concentration agent has a negative zeta potential at a pH of 7; (b) providing a sample comprising at least one microorganism strain; (c) contacting said concentration device with said sample such that at least a portion of said at least one microorganism strain is bound to or captured by said concentration device; and (d) detecting the presence of at least one bound microorganism strain. (a) providing a concentration device comprising a sintered porous polymer matrix comprising at least one concentration agent that comprises diatomaceous earth bearing, on at least a portion of its surface, a surface treatment comprising a surface modifier comprising ferric oxide, titanium dioxide, fine-nanoscale gold or platinum, or a combination thereof, wherein said at least one concentration agent has a negative zeta potential at a pH of 7; (b) providing a sample comprising at least one microorganism strain; (c) contacting said concentration device with said sample such that at least a portion of said at least one microorganism strain is bound to or captured by said concentration device; and (d) detecting the presence of at least one bound microorganism strain.
A lithium mixed metal oxide represented by the following formula: Li x (Mn 1-y-z Ni y Fe z)O 2 wherein x is a value in the range of not less than 0.9 and not more than 1.3, y is a value in the range of not less than 0.46 and less than 0.5, and z is a value in the range of not less than 0 and less than 0.1, characterised in that a mean value of particle diameters of constituent primary particles is in the range of not less than 0.01 μm and not more than 0.5 μm, and in that a mean value of particle diameters of secondary particles is not less than 0.1 μm and not more than 3 μm.
Method for operating a driver assistance system of a motor vehicle, having the steps: - collecting a first data set from sensor data, having missing class membership information, measured by a sensor device of the driver assistance system, wherein the class membership information concerns the objects represented by the sensor data: - pre-training a classification algorithm of the driver assistance system under consideration of the first dataset for the improvement of an object differentiation of the classification algorithm, wherein the pre-training comprises an unsupervised learning process; - generating a second dataset of simulated sensor data having at least one respective class membership information item according to a predetermined rule; - training out the classification algorithm of the driver assistance system under consideration of the second dataset for the improvement of a characteristic assignment of the classification algorithm for objects differentiated by the classification algorithm, wherein the training out comprises a supervised learning process; in order to improve a recognition by the driver assistance system of objects which are represented by measured further sensor data. - collecting a first data set from sensor data, having missing class membership information, measured by a sensor device of the driver assistance system, wherein the class membership information concerns the objects represented by the sensor data: - pre-training a classification algorithm of the driver assistance system under consideration of the first dataset for the improvement of an object differentiation of the classification algorithm, wherein the pre-training comprises an unsupervised learning process; - generating a second dataset of simulated sensor data having at least one respective class membership information item according to a predetermined rule; - training out the classification algorithm of the driver assistance system under consideration of the second dataset for the improvement of a characteristic assignment of the classification algorithm for objects differentiated by the classification algorithm, wherein the training out comprises a supervised learning process;
A method of synchronizing a group of scheduled tasks into a known state within a parallel processing unit comprising: in response to decoding, in an instruction decoder, a synchronization instruction in a scheduled task having a group ID, placing the scheduled task into a non-active state and forwarding the decoded synchronization instruction to an atomic ALU for execution, wherein the decoded synchronization instruction causes the atomic ALU to perform an operation on data assigned to the group ID of the scheduled task which includes the synchronization instruction and then to perform a check on the data assigned to the group ID (206, 208), wherein the operation updates the data assigned to the group ID of the scheduled task which includes the synchronization instruction and the atomic ALU performs the update on the data and the check on the updated data in response to a single decoded synchronization instruction without any possibility that another instruction can over-write the data in between the update and the check on the updated data; and in response to receiving, at a scheduler, a message from the atomic ALU indicating that the data assigned to the group ID of the scheduled task which includes the synchronization instruction passed the check, removing all scheduled tasks having that group ID from the non-active state. in response to decoding, in an instruction decoder, a synchronization instruction in a scheduled task having a group ID, placing the scheduled task into a non-active state and forwarding the decoded synchronization instruction to an atomic ALU for execution, wherein the decoded synchronization instruction causes the atomic ALU to perform an operation on data assigned to the group ID of the scheduled task which includes the synchronization instruction and then to perform a check on the data assigned to the group ID (206, 208), wherein the operation updates the data assigned to the group ID of the scheduled task which includes the synchronization instruction and the atomic ALU performs the update on the data and the check on the updated data in response to a single decoded synchronization instruction without any possibility that another instruction can over-write the data in between the update and the check on the updated data; and in response to receiving, at a scheduler, a message from the atomic ALU indicating that the data assigned to the group ID of the scheduled task which includes the synchronization instruction passed the check, removing all scheduled tasks having that group ID from the non-active state.
A subsea fuse for use in a high pressure environment, comprising - a fuse element, - a first lid and a second lid, and - electrical connections (23, 24) for contacting the fuse element, characterized in that the subsea fuse further comprises - a hollow elongated element made of a flexible material having a first opening and a second opening for said first and second lids (11, 12), respectively, at opposing ends thereof, wherein the first opening in the hollow elongated element is sealed in a liquid-tight manner by the first lid and the second opening in the hollow elongated element is sealed in a liquid-tight manner by the second lid, such that the first and second lids and the hollow elongated element form a liquid-tight chamber, wherein the liquid-tight chamber is filled with a liquid and the fuse element is arranged inside the liquid-tight chamber, wherein the hollow elongated element is adapted to provide pressure compensation between a pressure inside the liquid-tight chamber and the high pressure environment surrounding the subsea fuse when installed subsea, and wherein the first and second lids (11, 12) are made of a conductive material, in particular metal, wherein the electrical connections for contacting the fuse element are provided via the first and second lids, one terminal of the fuse element being electrically connected to the first lid and the other terminal of the fuse element being electrically connected to the second lid. - a fuse element, - a first lid and a second lid, and - electrical connections (23, 24) for contacting the fuse element, - a hollow elongated element made of a flexible material having a first opening and a second opening for said first and second lids (11, 12), respectively, at opposing ends thereof, wherein the first opening in the hollow elongated element is sealed in a liquid-tight manner by the first lid and the second opening in the hollow elongated element is sealed in a liquid-tight manner by the second lid, such that the first and second lids and the hollow elongated element form a liquid-tight chamber,
A data transmission method performed by a second terminal, wherein the method comprises: obtaining, by the second terminal, an uplink transmission resource allocated by an access network device; receiving (S406, S409), by the second terminal, sending cancelation instruction information sent by the access network device, wherein the sending cancelation instruction information is sent by the access network device to the second terminal after the access network device receives an scheduling request, SR, sent by a first terminal by using an SR resource; and canceling, by the second terminal based on the sending cancelation instruction information, data sending on the uplink transmission resource allocated to the second terminal; characterized in that, if the second terminal is sending data when receiving the sending cancelation instruction information, the second terminal stops sending a currently transmitted data block. obtaining, by the second terminal, an uplink transmission resource allocated by an access network device; receiving (S406, S409), by the second terminal, sending cancelation instruction information sent by the access network device, wherein the sending cancelation instruction information is sent by the access network device to the second terminal after the access network device receives an scheduling request, SR, sent by a first terminal by using an SR resource; and canceling, by the second terminal based on the sending cancelation instruction information, data sending on the uplink transmission resource allocated to the second terminal; characterized in that, if the second terminal is sending data when receiving the sending cancelation instruction information, the second terminal stops sending a currently transmitted data block.
A fire resistant polymeric composition which forms a target mineral on firing of the polymeric composition including: 20 - 60 wt% of an organic polymer; 2 - 30 wt% of a magnesium compound that oxidises to form MgO; and 5 to 30 wt% silica; the silica forming an acidic oxide that reacts with the MgO to form the target mineral. 20 - 60 wt% of an organic polymer; 2 - 30 wt% of a magnesium compound that oxidises to form MgO; and 5 to 30 wt% silica; the silica forming an acidic oxide that reacts with the MgO to form the target mineral.
Composite component for a wind turbine blade, the composite component comprising a stack of at least one fibre layer (102, 103, 105), and a membrane which has a first surface and a second surface which is an opposite surface with respect to the first surface, wherein the membrane is arranged with the first surface on top of the stack, wherein the membrane is perforated with openings, wherein the membrane is formed in such a way that the openings are permeable for a fluid flowing along a first direction directing from the first surface to the second surface, and impermeable for a fluid flowing along a second direction directing from the second surface to the first surface, characterized in that the membrane comprises at least one elastic seal lip surrounding one of the openings at the second surface.
A machine for preparing and dispensing espresso coffee comprising: a water supply; a dispensing group and a corresponding coffee boiler containing water under pressure; a heater device for heating the water in the coffee boiler; a temperature sensor for measuring the temperature of the water in the coffee boiler; a processor connected to said temperature sensor and configured to drive said heater device so that said water in the coffee boiler is at a set reference temperature (Trif, Trif_new), wherein said processor comprises a feedback system; characterized in that, the value of said set reference temperature (Trif, Trif_new) is varied as a function of a first parameter which is a function of the time elapsed from a machine operating cycle or a frequency of use of the machine within a time interval. a water supply; a dispensing group and a corresponding coffee boiler containing water under pressure; a heater device for heating the water in the coffee boiler; a temperature sensor for measuring the temperature of the water in the coffee boiler; a processor connected to said temperature sensor and configured to drive said heater device so that said water in the coffee boiler is at a set reference temperature (Trif, Trif_new), wherein said processor comprises a feedback system; characterized in that, the value of said set reference temperature (Trif, Trif_new) is varied as a function of a first parameter which is a function of the time elapsed from a machine operating cycle or a frequency of use of the machine within a time interval.
A magnetic toner comprising at least a binder resin and a magnetic material, wherein the magnetic material is magnetic iron oxide containing 0.5 to 5.0 mass % of aluminium (Al), the dielectric breakdown voltage of the magnetic material, as determined according to JIS C 2161, is 160 to 1600 V/cm, and the dielectric loss tangent (tanδ) of the magnetic toner at 100 kHz and 40°C, as determined in accordance with the description, is 2.0 × 10 -3 to 1.0 × 10 -2.
Monitoring device for monitoring and controlling activities of at least one gardening tool, intended for use in the garden, within at least one activity zone, the at least one gardening tool being of the lawn mower type, in particular a robotic mower, cutting tool, in particular hedge cutting robot, irrigation tool, fertilizer tool, leaf vacuum robot, mulcher, water cleaning robot and/or pump, and the monitoring device being designed to evaluate at least one activity zone state of the activity zone and at least one gardening tool state of the gardening tool in order to control the gardening tool, characterized in that the monitoring device is designed to evaluate and take into consideration an activity zone state of at least one further activity zone and a gardening tool state of at least one further gardening tool in order to control activities of the gardening tool within the activity zone, the activity zone states in the activity zone including environmental states determined by sensors. the at least one gardening tool being of the lawn mower type, in particular a robotic mower, cutting tool, in particular hedge cutting robot, irrigation tool, fertilizer tool, leaf vacuum robot, mulcher, water cleaning robot and/or pump, and the monitoring device being designed to evaluate at least one activity zone state of the activity zone and at least one gardening tool state of the gardening tool in order to control the gardening tool, characterized in that the monitoring device is designed to evaluate and take into consideration an activity zone state of at least one further activity zone and a gardening tool state of at least one further gardening tool in order to control activities of the gardening tool within the activity zone, the activity zone states in the activity zone including environmental states determined by sensors.
Axially operating stirring element, preferably a propeller manufactured from sheet metal and having propeller blades arranged radially about an axis, one or more propeller blades being formed from sheet metal, the sheet metal being bent into the form of the blade and being welded to a propeller hub, one or more blades being formed in a sickle-shaped manner and preferably being rounded or obliquely or tangentially cut off at the outer ends, at least two individual blades being superposed one on the other in a top view in the direction of the axis, the said stirring element having at least one propeller blade which possesses a chamfered edge on the exit side, characterized in that only part, preferably the outer half, especially preferably the outer two thirds, of the edge has the chamfered edge on the exit side.
Pump, in particular high-pressure fuel pump, having a housing part in which a pump piston is arranged in movable fashion in a cylinder bore, which pump piston delimits a pump working chamber in the cylinder bore, having an inlet valve which is arranged in the housing part and by means of which the pump working chamber is connectable to a feed line, wherein, in the feed line, there is arranged a metering device by means of which the quantity of medium for conveying which is fed to the pump working chamber can be variably adjusted, wherein the feed line runs at least partially in a low-pressure module (70; 170) connected to the pump, and the metering device is arranged on the low-pressure module, wherein the housing part has a hollow cylindrical projection which adjoins the cylinder bore and in which the inlet valve is arranged, wherein the low-pressure module (70; 170) is mounted onto the hollow cylindrical projection of the housing part, wherein the feed line runs from the metering device to the inlet valve through the hollow cylindrical projection, wherein the inlet valve has a valve housing which is inserted into the hollow cylindrical projection and which is pressed by means of a screw into the hollow cylindrical projection such that the pump working chamber is sealed off in the direction of the hollow cylindrical projection, and wherein the low-pressure module (70; 170) has a recess (74; 174) into which the hollow cylindrical projection of the housing part projects, characterized in that the screw is a closure screw and in that a ring-shaped chamber is formed between the outer circumference of the hollow cylindrical projection and the recess (74; 174) of the low-pressure module (70; 170), such that fuel can pass from the recess (74; 174) to the inlet valve via the at least one bore which runs through the hollow cylindrical projection.
A processor comprising: a decode unit to receive a first secured system environment wakeup instruction to enable a directed wakeup mode; a control unit to switch the processor into the directed wakeup mode in response to the first secured system environment wakeup instruction and cause a wake-inhibit indicator to be set for each of a plurality of responding logical processors to be kept in a sleep state; and a messaging unit to, in response to the decode unit receiving a second secured system environment wakeup instruction, send a wakeup message to the plurality of responding logical processors, wherein, only when the processor is in the directed wakeup mode, the wakeup message is to be ignored by each of the plurality of responding logical processors for which the wake-inhibit indicator is set. a decode unit to receive a first secured system environment wakeup instruction to enable a directed wakeup mode; a control unit to switch the processor into the directed wakeup mode in response to the first secured system environment wakeup instruction and cause a wake-inhibit indicator to be set for each of a plurality of responding logical processors to be kept in a sleep state; and a messaging unit to, in response to the decode unit receiving a second secured system environment wakeup instruction, send a wakeup message to the plurality of responding logical processors, wherein, only when the processor is in the directed wakeup mode, the wakeup message is to be ignored by each of the plurality of responding logical processors for which the wake-inhibit indicator is set.
A network node configured to signal interference suppressed information to one or more remote nodes (100, 200) in a wireless network, said interference suppressed information comprising information about the interference after interference suppression, the network node comprising: an information unit configured to process a received signal using an interference suppression receiver to suppress interference in the received signal to determine the interference suppressed information, said interference suppressed information comprising an interference suppressed noise floor associated with a cell of a radio network node in the wireless network; and a signaling unit configured to signal the interference suppressed information to a remote node (100, 200) in the wireless network via an interface communicatively coupling the network node to the remote node (100, 200), the signaling unit further being configured to signal a capability indication indicating at least one of an ability of the network node to address interference, an ability of the network node to signal the interference suppressed information, and whether interference suppression has been applied to signaled information. wherein the interference suppressed information is obtained from a noise floor estimate before G-RAKE+ processing, multiplied by a scale factor, which scale factor comprises G-RAKE+ combining weights. an information unit configured to process a received signal using an interference suppression receiver to suppress interference in the received signal to determine the interference suppressed information, said interference suppressed information comprising an interference suppressed noise floor associated with a cell of a radio network node in the wireless network; and a signaling unit configured to signal the interference suppressed information to a remote node (100, 200) in the wireless network via an interface communicatively coupling the network node to the remote node (100, 200), the signaling unit further being configured to signal a capability indication indicating at least one of an ability of the network node to address interference, an ability of the network node to signal the interference suppressed information, and whether interference suppression has been applied to signaled information. wherein the interference suppressed information is obtained from a noise floor estimate before G-RAKE+ processing, multiplied by a scale factor, which scale factor comprises G-RAKE+ combining weights.