mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: collecting memory usage data for a plurality of host nodes (108a-n, 302) on a cloud computing system , the memory usage data including sampled data corresponding to memory usage on the plurality of host nodes; aggregating the memory usage data over one or more predetermined intervals to determine a subset of host nodes from the plurality of host nodes predicted to have memory leaks based on memory usage data for the subset of host nodes satisfying one or more impact metrics; observing memory usage trends at different periodical times, including determining that memory usage increases at given periodical times; diagnosing one or more memory leaks for the subset of host nodes based on memory usage data corresponding to the subset of host nodes, including distinguishing between memory leaks and memory usage increases at given periodical times; and applying a mitigation model to the portion of the aggregated data to determine and generate a mitigation command to provide to one or more host nodes from the subset of host nodes. collecting memory usage data for a plurality of host nodes (108a-n, 302) on a cloud computing system , the memory usage data including sampled data corresponding to memory usage on the plurality of host nodes; aggregating the memory usage data over one or more predetermined intervals to determine a subset of host nodes from the plurality of host nodes predicted to have memory leaks based on memory usage data for the subset of host nodes satisfying one or more impact metrics; observing memory usage trends at different periodical times, including determining that memory usage increases at given periodical times; diagnosing one or more memory leaks for the subset of host nodes based on memory usage data corresponding to the subset of host nodes, including distinguishing between memory leaks and memory usage increases at given periodical times; and applying a mitigation model to the portion of the aggregated data to determine and generate a mitigation command to provide to one or more host nodes from the subset of host nodes.
A MEMS sensor for measuring a force, comprising: a proof mass located within a MEMS layer of the MEMS sensor and comprising a proof mass planar surface; an electrode comprising an electrode planar surface to form a first capacitor with the proof mass , wherein the electrode planar surface faces the proof mass planar surface to form the first capacitor, wherein the proof mass is caused to oscillate according to a drive motion, and wherein an overlap of the facing portions of the electrode planar surface and the proof mass planar surface changes during the drive motion; and processing circuitry configured to receive a sense signal from the first capacitor, the sense signal including a force signal based on a displacement of the proof mass normal to the electrode planar surface in response to the force and an overlap signal generated due to a change in the overlap, measure a magnitude of the overlap signal from the sense signal, receive a force signal based on a movement of the proof mass orthogonal to the drive motion, and calculate a force based on the force signal and the magnitude of the signal generated based on the change in the overlap. a proof mass located within a MEMS layer of the MEMS sensor and comprising a proof mass planar surface; an electrode comprising an electrode planar surface to form a first capacitor with the proof mass , wherein the electrode planar surface faces the proof mass planar surface to form the first capacitor, wherein the proof mass is caused to oscillate according to a drive motion, and wherein an overlap of the facing portions of the electrode planar surface and the proof mass planar surface changes during the drive motion; and processing circuitry configured to receive a sense signal from the first capacitor, the sense signal including a force signal based on a displacement of the proof mass normal to the electrode planar surface in response to the force and an overlap signal generated due to a change in the overlap, measure a magnitude of the overlap signal from the sense signal, receive a force signal based on a movement of the proof mass orthogonal to the drive motion, and calculate a force based on the force signal and the magnitude of the signal generated based on the change in the overlap.
A method comprising: reacting butene with bromine in a bromination reactor under reaction conditions adapted for selective bromination of the butene in the allylic position to form a bromination product stream comprising bromobutenes; and subjecting the bromobutenes to dehydrobromination to form a dehydrobromination product stream comprising 1,3-butadiene in a dehydrobromination reactor downstream from the bromination reactor.
Shutter device for a front grille of a vehicle, comprising a frame , a driving flap pivotally coupled to said frame and suitable for pivoting between an airflow blocking position and an opening position, a rotary actuator for delivering torque and moving the driving flap , and a rotary shaft for coupling the actuator and the driving flap , the shaft comprising a first stop configured for being supported on a final stop of the frame when the driving flap is arranged in the blocking position, wherein the shaft also comprises a second stop arranged on the shaft , the second stop being angularly displaced with respect to the first stop , the shutter device being characterized in that the second stop being also axially displaced with respect to the first stop , and said second stop also being configured for being supported on a final stop of the frame when the driving flap is arranged in the blocking position.
A nitride semiconductor element comprising: a base structure part ; an element structure part having at least an n-type AlGaN based semiconductor layer and a p-type AlGaN based semiconductor layer formed on the base structure part ; an n-electrode contact part formed on the n-type AlGaN based semiconductor layer ; an n-electrode pad part formed on the n-electrode contact part ; and a p-electrode formed on the p-type AlGaN based semiconductor layer , wherein an AlN mole fraction of the n-type AlGaN based semiconductor layer is 20% or more, the n-electrode contact part comprises one or more metal layers, and a laminated structure of the p-electrode and a laminated structure of the n-electrode pad part are totally the same laminated structure, and the laminated structure is a common laminated structure of two or more layers having an Au layer as an uppermost layer, and an Au diffusion preventing layer made of conductive metal oxide and formed under the uppermost layer to prevent Au diffusion. a base structure part ; an element structure part having at least an n-type AlGaN based semiconductor layer and a p-type AlGaN based semiconductor layer formed on the base structure part ; an n-electrode contact part formed on the n-type AlGaN based semiconductor layer ; an n-electrode pad part formed on the n-electrode contact part ; and a p-electrode formed on the p-type AlGaN based semiconductor layer , wherein an AlN mole fraction of the n-type AlGaN based semiconductor layer is 20% or more, the n-electrode contact part comprises one or more metal layers, and a laminated structure of the p-electrode and a laminated structure of the n-electrode pad part are totally the same laminated structure, and the laminated structure is a common laminated structure of two or more layers having an Au layer as an uppermost layer, and an Au diffusion preventing layer made of conductive metal oxide and formed under the uppermost layer to prevent Au diffusion.
A cover comprising; a main section provided with link means to allow linking of the cover to an adjacent cover, wherein the main section is shaped to include opposing side walls and defines: a reinforced plastics material central region in which elongate reinforcement members are provided extending within the side walls , and end regions located to opposite ends of and integrally formed with the central region , characterised in that the elongate reinforcement members are contained within the side walls and stop short of the end regions , and wherein the link means are provided at the end regions . a main section provided with link means to allow linking of the cover to an adjacent cover, wherein the main section is shaped to include opposing side walls and defines: a reinforced plastics material central region in which elongate reinforcement members are provided extending within the side walls , and end regions located to opposite ends of and integrally formed with the central region , characterised in that the elongate reinforcement members are contained within the side walls and stop short of the end regions , and wherein the link means are provided at the end regions . a reinforced plastics material central region in which elongate reinforcement members are provided extending within the side walls , and end regions located to opposite ends of and integrally formed with the central region , characterised in that the elongate reinforcement members are contained within the side walls and stop short of the end regions , and wherein the link means are provided at the end regions .
A method performed by a network node , for managing a transmission of one or more Cell-specific Reference Signals, CRS, wherein the network node operates one or more cells and is configured to transmit CRS in a first frequency bandwidth mode, the method comprising: identifying a first cell out of the one or more cells that is serving a set of unscheduled User Equipment, UEs , wherein in the first cell the network node transmits CRS in subframes in the first frequency bandwidth mode, the subframes being transmitted during an onDuration interval of a Discontinous Reception, DRX pattern, or in subframes where system information, paging or random access messages are sent, in subframes where the network node assumes a UE to perform measurements or in subframes where downlink, DL, data is sent; and applying a second frequency bandwidth mode on CRS in subframes which are not transmitted in the first cell during the onDuration interval of Discontinuous Reception, DRX, or where the network node transmits system information, paging or random access response messages, in subframes where the network node assumes a UE to perform measurements or in subframes where downlink, DL is sent, the second frequency bandwidth mode being reduced in relation to the first frequency bandwidth mode, and transmitting the CRS in subframes of the first cell over the first frequency bandwidth mode and the second frequency bandwidth mode based on whether the CRS is transmitted during the onDuration interval of the DRX, the network node transmits system information, paging or random access response messages, or the network node assumes that a UE perform measurements or in subframes where downlink, DL is sent. identifying a first cell out of the one or more cells that is serving a set of unscheduled User Equipment, UEs , wherein in the first cell the network node transmits CRS in subframes in the first frequency bandwidth mode, the subframes being transmitted during an onDuration interval of a Discontinous Reception, DRX pattern, or in subframes where system information, paging or random access messages are sent, in subframes where the network node assumes a UE to perform measurements or in subframes where downlink, DL, data is sent; and applying a second frequency bandwidth mode on CRS in subframes which are not transmitted in the first cell during the onDuration interval of Discontinuous Reception, DRX, or where the network node transmits system information, paging or random access response messages, in subframes where the network node assumes a UE to perform measurements or in subframes where downlink, DL is sent, the second frequency bandwidth mode being reduced in relation to the first frequency bandwidth mode, and transmitting the CRS in subframes of the first cell over the first frequency bandwidth mode and the second frequency bandwidth mode based on whether the CRS is transmitted during the onDuration interval of the DRX, the network node transmits system information, paging or random access response messages, or the network node assumes that a UE perform measurements or in subframes where downlink, DL is sent.
A laundry treating apparatus comprising: a housing (H) forming an appearance of the laundry treating apparatus; a drawer movable from the housing (H), the drawer having a space formed therein; and a drying rack fixed to a surface of the space to be unfolded to the other surface of the space or to be folded to the surface of the space , characterised in that the drying rack comprises: a plurality of plate-shaped members ; and a hinge rotatably connecting the plate-shaped members with each other, wherein each one of the plate-shaped members is adapted to be rotated in the opposite direction to its neighboring one, connected with its neighboring member by the hinge , so as to form crests and troughs when the drying rack is unfolded in the space , and shaped such that the crests and troughs form a curved surface with a predetermined curvature when the drying rack is unfolded in the space of the drawer . a housing (H) forming an appearance of the laundry treating apparatus; a drawer movable from the housing (H), the drawer having a space formed therein; and a drying rack fixed to a surface of the space to be unfolded to the other surface of the space or to be folded to the surface of the space , characterised in that the drying rack comprises: a plurality of plate-shaped members ; and a hinge rotatably connecting the plate-shaped members with each other, wherein each one of the plate-shaped members is adapted to be rotated in the opposite direction to its neighboring one, connected with its neighboring member by the hinge , so as to form crests and troughs when the drying rack is unfolded in the space , and shaped such that the crests and troughs form a curved surface with a predetermined curvature when the drying rack is unfolded in the space of the drawer . a plurality of plate-shaped members ; and a hinge rotatably connecting the plate-shaped members with each other, wherein each one of the plate-shaped members is adapted to be rotated in the opposite direction to its neighboring one, connected with its neighboring member by the hinge , so as to form crests and troughs when the drying rack is unfolded in the space , and shaped such that the crests and troughs form a curved surface with a predetermined curvature when the drying rack is unfolded in the space of the drawer .
A positive electrode for a metal air battery, the positive electrode comprising: a lithium salt; and a carbonaceous material having a surface coated with a polymer electrolyte layer, the polymer electrolyte layer comprising a polymer electrolyte, the polymer electrolyte comprising a crosslinked polymer electrolyte, the polymer electrolyte further comprising at least one type of hydrophilic material and at least one type of hydrophobic material, wherein a portion of the polymer electrolyte is anchored to the surface of the carbonaceous material via noncovalent or covalent bonds. a lithium salt; and a carbonaceous material having a surface coated with a polymer electrolyte layer, the polymer electrolyte layer comprising a polymer electrolyte, the polymer electrolyte comprising a crosslinked polymer electrolyte, the polymer electrolyte further comprising at least one type of hydrophilic material and at least one type of hydrophobic material, wherein a portion of the polymer electrolyte is anchored to the surface of the carbonaceous material via noncovalent or covalent bonds.
X4P-001, or a pharmaceutically acceptable salt thereof, for use in treating cancer in a patient in need thereof, wherein said use comprises administering to said patient X4P-001, or a pharmaceutically acceptable salt thereof, in combination with axitinib, or a pharmaceutically acceptable salt thereof. or a pharmaceutically acceptable salt thereof, for use in treating cancer in a patient in need thereof, wherein said use comprises administering to said patient X4P-001, or a pharmaceutically acceptable salt thereof, in combination with axitinib, or a pharmaceutically acceptable salt thereof.
A method for optical control of atomic quantum bits (qubits), comprising: identifying a qubit operation; and controlling fields in optical beams applied to at least one of the atomic qubits for phase control of the qubit operation, characterized in that : the optical beams are configured in a phase insensitive configuration, and that the optical beams include counter-propagating optical beams when the qubit operation is a multi-qubit operation. identifying a qubit operation; and controlling fields in optical beams applied to at least one of the atomic qubits for phase control of the qubit operation, characterized in that : the optical beams are configured in a phase insensitive configuration, and that the optical beams include counter-propagating optical beams when the qubit operation is a multi-qubit operation.
Process for the carbonation of at least one alkaline solid, characterized in that it is carried out in a reactor having a rotatably mounted reactor chamber and comprises the following steps, a) feeding CO 2 -containing reactive gas and at least one alkaline solid into the reactor under exclusion of ambient air, so that carbonation takes place, and b) the removal of the reactive gas used and the carbonated solid from the reactor , wherein - the solid material is constantly moved by rotation of the rotatably mounted reactor chamber , and the rotational speed of the reactor chamber is between 10 rotations per minute and 1 rotation per hour; - the supply and discharge of the CO 2 -containing gas takes place via pipe and the connecting pipes ; - the process is controlled or regulated via a control unit . a) feeding CO 2 -containing reactive gas and at least one alkaline solid into the reactor under exclusion of ambient air, so that carbonation takes place, and b) the removal of the reactive gas used and the carbonated solid from the reactor , wherein - the solid material is constantly moved by rotation of the rotatably mounted reactor chamber , and the rotational speed of the reactor chamber is between 10 rotations per minute and 1 rotation per hour; - the supply and discharge of the CO 2 -containing gas takes place via pipe and the connecting pipes ; - the process is controlled or regulated via a control unit . - the solid material is constantly moved by rotation of the rotatably mounted reactor chamber , and the rotational speed of the reactor chamber is between 10 rotations per minute and 1 rotation per hour; - the supply and discharge of the CO 2 -containing gas takes place via pipe and the connecting pipes ; - the process is controlled or regulated via a control unit .
An optical coupling device , comprising: an optical connector configured to deliver light from a light source as a first beam ; a lens having a lens central axis , the lens configured to focus the first beam to form a converging second beam , the first beam having a first beam central axis that is offset from the lens central axis, the second beam having a second beam central axis that is angled with respect to the first beam central axis; a planar grating that is oriented orthogonal to the first beam central axis, the grating configured to redirect the second beam to form a converging third beam ; a mirror positioned such that the grating is between the lens and the mirror, the mirror configured to reflect toward the grating light from the second beam that passes through the grating; and an optical waveguide aligned with the third beam central axis and configured to receive the third beam. an optical connector configured to deliver light from a light source as a first beam ; a lens having a lens central axis , the lens configured to focus the first beam to form a converging second beam , the first beam having a first beam central axis that is offset from the lens central axis, the second beam having a second beam central axis that is angled with respect to the first beam central axis; a planar grating that is oriented orthogonal to the first beam central axis, the grating configured to redirect the second beam to form a converging third beam ; a mirror positioned such that the grating is between the lens and the mirror, the mirror configured to reflect toward the grating light from the second beam that passes through the grating; and an optical waveguide aligned with the third beam central axis and configured to receive the third beam.
Sensor system for sensing mass concentration of particles smaller than a predetermined threshold in an air stream, comprising: an inlet for receiving a total flow of air with particles, the inlet connected to: a first splitter for separating the total flow of air into a major flow and a minor flow ; the major flow comprising particles smaller than the predetermined threshold; the minor flow comprising particles larger than the predetermined threshold; and for leading the major flow to a first duct ; and for leading the minor flow to a second duct ; a joint , wherein the first duct and the second duct come together, and an outlet , coupled to the joint; a sensor , arranged in the first duct for measuring the amount of particles smaller than the predetermined threshold comprised in the major flow; and a first flow fan for drawing the total flow through the system; characterised by: a second flow fan for drawing the major flow through the first duct; wherein the first flow fan and the second flow fan are coupled to a controller for controlling the first and the second fan speeds such that a predetermined ratio between major and minor flow is obtained. a first splitter for separating the total flow of air into a major flow and a minor flow ; the major flow comprising particles smaller than the predetermined threshold; the minor flow comprising particles larger than the predetermined threshold; and for leading the major flow to a first duct ; and for leading the minor flow to a second duct ; for separating the total flow of air into a major flow and a minor flow ; the major flow comprising particles smaller than the predetermined threshold; the minor flow comprising particles larger than the predetermined threshold; and the major flow comprising particles smaller than the predetermined threshold; the minor flow comprising particles larger than the predetermined threshold; and for leading the major flow to a first duct ; and for leading the minor flow to a second duct ; a joint , wherein the first duct and the second duct come together, and an outlet , coupled to the joint; a sensor , arranged in the first duct for measuring the amount of particles smaller than the predetermined threshold comprised in the major flow; and a first flow fan for drawing the total flow through the system; a second flow fan for drawing the major flow through the first duct; wherein the first flow fan and the second flow fan are coupled to a controller for controlling the first and the second fan speeds such that a predetermined ratio between major and minor flow is obtained.