mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: determining performance information for a plurality of storage units located at a plurality of virtual data centers, wherein the determining is performed by executing storage administrator logic whose execution is controlled by a management entity different than one or more providers of the plurality of virtual data centers; determining, automatically based on the determined performance information, performance expectations; determining particular performance expectations applicable to a particular storage unit; determining that performance of the particular storage unit is incompatible with the particular performance expectations; causing, at least partially in response to determining that the performance of the particular storage unit is incompatible with the performance expectations, a reduction in utilization of the particular storage unit by instructing a virtual machine to transfer data stored on the particular storage unit to another storage unit of the plurality of storage units; wherein the particular storage unit is at a first virtual data center of the plurality of virtual data centers and the other storage unit of the plurality of storage units is at a second, different, virtual data center of the plurality of virtual data centers; wherein the method is performed by one or more computing devices. determining performance information for a plurality of storage units located at a plurality of virtual data centers, wherein the determining is performed by executing storage administrator logic whose execution is controlled by a management entity different than one or more providers of the plurality of virtual data centers; determining, automatically based on the determined performance information, performance expectations; determining particular performance expectations applicable to a particular storage unit; determining that performance of the particular storage unit is incompatible with the particular performance expectations; causing, at least partially in response to determining that the performance of the particular storage unit is incompatible with the performance expectations, a reduction in utilization of the particular storage unit by instructing a virtual machine to transfer data stored on the particular storage unit to another storage unit of the plurality of storage units; wherein the particular storage unit is at a first virtual data center of the plurality of virtual data centers and the other storage unit of the plurality of storage units is at a second, different, virtual data center of the plurality of virtual data centers; wherein the method is performed by one or more computing devices.
Birthing chair comprising a support leg, with a seat fixed at its upper end, wherein the seat has a seat panel and a swivel joint, wherein the swivel joint is provided between the upper end of the support leg and the seat panel, and in a top view the seat panel is somewhat U-shaped, characterised in that the swivel joint is designed for tilting the seat towards and away from a direction of seating, also transversely to the direction of seating.
A method for calculating values based on magnetic field information from a magnetic sensor in a sensing unit containing the magnetic sensor and at least one other sensing modality capable of providing a direct or derivative measure of change in orientation, the method comprising: sampling a magnetic field via the magnetic sensor at a plurality of points in time at a sample rate; sampling the at least one other sensing modality capable of providing a direct or derivative measure of change in orientation of the sensor unit at each of the plurality of points in time; rotating to a common time instant one or more of the plurality of magnetic field samples collected within a time interval using the orientation of the sensing unit at each of the plurality of points in time, estimated by means of the other sensing modality, in order to eliminate variations between magnetic samples due to changes in orientation of the sensor unit within such time interval; using the magnetic samples corrected for the sensor rotation in such interval to calculate magnetic field related information specific to the given time interval; and communicating to a receiver the magnetic field related information at an average rate lower than the sample rate. sampling a magnetic field via the magnetic sensor at a plurality of points in time at a sample rate; sampling the at least one other sensing modality capable of providing a direct or derivative measure of change in orientation of the sensor unit at each of the plurality of points in time; rotating to a common time instant one or more of the plurality of magnetic field samples collected within a time interval using the orientation of the sensing unit at each of the plurality of points in time, estimated by means of the other sensing modality, in order to eliminate variations between magnetic samples due to changes in orientation of the sensor unit within such time interval; using the magnetic samples corrected for the sensor rotation in such interval to calculate magnetic field related information specific to the given time interval; and communicating to a receiver the magnetic field related information at an average rate lower than the sample rate.
An electric power steering device comprising: a motor; a bridge circuit comprising a plurality of switching elements and configured to supply a current to the motor; an opening and closing unit that includes a semiconductor switching element (71, 72) and is configured to perform supply and interruption of a current to the bridge circuit from a battery by the semiconductor switching element (71, 72); characterised by a control device configured to perform control so as to limit a current flowing through the semiconductor switching element (71, 72) of the opening and closing unit if a difference between a gate voltage and a source voltage of the semiconductor switching element (71, 72) of the opening and closing unit is smaller than or equal to a predetermined value. a motor; a bridge circuit comprising a plurality of switching elements and configured to supply a current to the motor; an opening and closing unit that includes a semiconductor switching element (71, 72) and is configured to perform supply and interruption of a current to the bridge circuit from a battery by the semiconductor switching element (71, 72); characterised by a control device configured to perform control so as to limit a current flowing through the semiconductor switching element (71, 72) of the opening and closing unit if a difference between a gate voltage and a source voltage of the semiconductor switching element (71, 72) of the opening and closing unit is smaller than or equal to a predetermined value.
An air filter for I.C. engines, comprising a housing, provided with a removable lid, in which a compartment is provided receiving a main filter element which is replaceable and provided with a sealing gasket adapted to be interposed between the housing and the lid, wherein the sealing gasket comprises at least one centering seat or projection for receiving a corresponding centering projection or seat provided on the lid or on the housing when the main filter element is located within the housing and the housing is closed by the lid, wherein a secondary filter element is provided, wherein said main and secondary filter elements are individually replaceable, characterized in that the secondary filtering element defines a corresponding pocket in which the main filtering element is received, in that the secondary filter element comprises a corresponding annular sealing gasket, which has a cross-section having substantially the shape of an overturned "U" and capable of cooperating with a first inner perimeter edge provided in the housing of the filter, and in that said gaskets (23, 63) cooperate with each other in order to define a corresponding hermetic sealing when said main and secondary filter elements (17, 19) are received in the housing and the lid is closed.
A method for processing service traffic based on pseudo wires, comprising: receiving service traffic from a customer edge device; and determining a pseudo wire aggregation group corresponding to the service traffic; characterized in that the method further comprises, forwarding the service traffic, according to a local strategy, to a peer device via a pseudo wire in "forwarding" status in the pseudo wire aggregation group, wherein the pseudo wire aggregation group includes more than one pseudo wire corresponding to the service traffic, and the pseudo wire in "forwarding" status is a pseudo wire between a local device and the peer device in the pseudo wire aggregation group if a local status of the local device is a standby status and a peer status of the peer device is an active status; and assigning, to all pseudo wires in the pseudo wire aggregation group corresponding to the same service traffic, the same incoming label map entry, such that the peer device receives the service traffic from the pseudo wire according to the incoming label map entry. receiving service traffic from a customer edge device; and determining a pseudo wire aggregation group corresponding to the service traffic; characterized in that the method further comprises, forwarding the service traffic, according to a local strategy, to a peer device via a pseudo wire in "forwarding" status in the pseudo wire aggregation group, wherein the pseudo wire aggregation group includes more than one pseudo wire corresponding to the service traffic, and the pseudo wire in "forwarding" status is a pseudo wire between a local device and the peer device in the pseudo wire aggregation group if a local status of the local device is a standby status and a peer status of the peer device is an active status; and assigning, to all pseudo wires in the pseudo wire aggregation group corresponding to the same service traffic, the same incoming label map entry, such that the peer device receives the service traffic from the pseudo wire according to the incoming label map entry.
A battery control module for a battery system, comprising: a voltage measuring module that measures battery voltage; a current measuring module that measures battery current; and a state of charge module that is adapted to communicate with said current and voltage measuring modules and estimate SOC based on relaxation voltage, battery voltage and battery current, characterized in that said SOC module is adapted to determine at least one of i) whether a charge swing is within a first predetermined window of battery capacity, and ii) whether a discharge swing is within a second predetermined window of the battery capacity, wherein said SOC module is adapted to enable said estimation of said SOC if at least one of i) the charge swing follows a discharge swing within the first predetermined window and ii) the discharge swing follows a charge swing within the second predetermined window, and wherein said SOC module is adapted to disable said estimation of said SOC if at least one of i) the charge swing does not follow a discharge swing within the first predetermined window and ii) the discharge swing does not follow a charge swing within the second predetermined window. a voltage measuring module that measures battery voltage; a current measuring module that measures battery current; and a state of charge module that is adapted to communicate with said current and voltage measuring modules and estimate SOC based on relaxation voltage, battery voltage and battery current, characterized in that said SOC module is adapted to determine at least one of i) whether a charge swing is within a first predetermined window of battery capacity, and ii) whether a discharge swing is within a second predetermined window of the battery capacity, wherein said SOC module is adapted to enable said estimation of said SOC if at least one of i) the charge swing follows a discharge swing within the first predetermined window and ii) the discharge swing follows a charge swing within the second predetermined window, and wherein said SOC module is adapted to disable said estimation of said SOC if at least one of i) the charge swing does not follow a discharge swing within the first predetermined window and ii) the discharge swing does not follow a charge swing within the second predetermined window.
A method of transferring energy comprising: providing a first electromagnetic resonator structure receiving energy from an external power supply, said first resonator structure having a first resonant frequency ω 1, resonant wavelength λ 1, resonance width Γ 1, a first Q-factor Q 1, and a characteristic size L 1, wherein said first resonator structure comprises a capacitively-loaded conducting-wire loop, where the characteristic size L 1 is the radius of the loop; providing a second electromagnetic resonator structure being positioned distal from said first resonator structure, at closest distance D, said second resonator structure having a second resonant frequency ω 2, resonant wavelength λ 2, and resonance width Γ 2, a second Q-factor Q 2, and a characteristic size L 2, wherein said second resonator structure comprises a capacitively-loaded conducting-wire loop where the characteristic size L 2 is the radius of the loop, wherein the two said frequencies ω 1 and ω 2 are close to within the narrower of the two resonance widths Γ 1 and Γ 2, and transferring energy non-radiatively between said first resonator structure and said second resonator structure, said energy transfer being mediated through coupling of their resonant-field evanescent tails, and the rate of energy transfer between said first resonator and said second resonator being denoted by κ, wherein Q 1 >200 and Q 2 >200, and κ/sqrt(Γ 1 ∗Γ 2)>2 and D/L 2 >1,2,3,5, wherein non-radiative means D is smaller than each of the resonant wavelengths λ 1 and λ 2, wherein the second resonator structure is part of a mobile wireless receiver. providing a first electromagnetic resonator structure receiving energy from an external power supply, said first resonator structure having a first resonant frequency ω 1, resonant wavelength λ 1, resonance width Γ 1, a first Q-factor Q 1, and a characteristic size L 1, wherein said first resonator structure comprises a capacitively-loaded conducting-wire loop, where the characteristic size L 1 is the radius of the loop; providing a second electromagnetic resonator structure being positioned distal from said first resonator structure, at closest distance D, said second resonator structure having a second resonant frequency ω 2, resonant wavelength λ 2, and resonance width Γ 2, a second Q-factor Q 2, and a characteristic size L 2, wherein said second resonator structure comprises a capacitively-loaded conducting-wire loop where the characteristic size L 2 is the radius of the loop, wherein the two said frequencies ω 1 and ω 2 are close to within the narrower of the two resonance widths Γ 1 and Γ 2, and transferring energy non-radiatively between said first resonator structure and said second resonator structure, said energy transfer being mediated through coupling of their resonant-field evanescent tails, and the rate of energy transfer between said first resonator and said second resonator being denoted by κ, wherein Q 1 >200 and Q 2 >200, and κ/sqrt(Γ 1 ∗Γ 2)>2 and D/L 2 >1,2,3,5, wherein non-radiative means D is smaller than each of the resonant wavelengths λ 1 and λ 2, wherein the second resonator structure is part of a mobile wireless receiver.
An aqueous polyurethane dispersion comprising a polyurethane polymer comprising the reaction product of: an isocyanate-terminated prepolymer containing less than 10% or no organic solvent on a total weight percentage basis, the isocyanate-terminated prepolymer comprising the reaction product of: (i) at least one polyisocyanate; (ii) at least one polyol, wherein said at least one polyol comprises a polyol selected from the group consisting of polyether polyol, polycarbonate polyol, and mixtures thereof; (iii) at least one isocyanate-reactive compound comprising one or more ionic groups or potential ionic groups per molecule and at least two isocyanate-reactive groups per molecule; (iv) an isocyanate chain terminating agent comprising at least one carboxylic acid group per molecule and one isocyanate-reactive group per molecule, and an isocyanate chain terminating agent comprising hydrophilic ethylene oxide units and one isocyanate-reactive group per molecule; and; at least one neutralizing agent that reacts with the at least one isocyanate-reactive compound, wherein said neutralizing agent comprises a tertiary amine; and at least one chain extending agent, wherein said at least one chain extending agent comprises an organic polyamine; and wherein the dispersion contains less than 10% or no organic solvent on a total weight percentage basis. an isocyanate-terminated prepolymer containing less than 10% or no organic solvent on a total weight percentage basis, the isocyanate-terminated prepolymer comprising the reaction product of: (i) at least one polyisocyanate; (ii) at least one polyol, wherein said at least one polyol comprises a polyol selected from the group consisting of polyether polyol, polycarbonate polyol, and mixtures thereof; (iii) at least one isocyanate-reactive compound comprising one or more ionic groups or potential ionic groups per molecule and at least two isocyanate-reactive groups per molecule; (iv) an isocyanate chain terminating agent comprising at least one carboxylic acid group per molecule and one isocyanate-reactive group per molecule, and an isocyanate chain terminating agent comprising hydrophilic ethylene oxide units and one isocyanate-reactive group per molecule; and; (i) at least one polyisocyanate; (ii) at least one polyol, wherein said at least one polyol comprises a polyol selected from the group consisting of polyether polyol, polycarbonate polyol, and mixtures thereof; (iii) at least one isocyanate-reactive compound comprising one or more ionic groups or potential ionic groups per molecule and at least two isocyanate-reactive groups per molecule; (iv) an isocyanate chain terminating agent comprising at least one carboxylic acid group per molecule and one isocyanate-reactive group per molecule, and an isocyanate chain terminating agent comprising hydrophilic ethylene oxide units and one isocyanate-reactive group per molecule; and; at least one neutralizing agent that reacts with the at least one isocyanate-reactive compound, wherein said neutralizing agent comprises a tertiary amine; and at least one chain extending agent, wherein said at least one chain extending agent comprises an organic polyamine;
A method of making a damper member, the method comprising: identifying a target vibrational mode to dampen; and tuning an acoustic attenuation of a damper member according to the target vibrational mode, wherein the damper includes a lattice network (26; 26') of a first material, the lattice network (26, 26') including interconnected pores, and a matrix of a second, different material within the interconnected pores, the tuning including selecting a first acoustic impedance for the lattice network (26; 26') in correspondence with selecting a second, different acoustic impedance of the matrix such that the acoustic attenuation of the damper member is tuned to dampen the target vibrational mode, wherein the first material is a metallic material and the second material is a different metallic material. identifying a target vibrational mode to dampen; and tuning an acoustic attenuation of a damper member according to the target vibrational mode, wherein the damper includes a lattice network (26; 26') of a first material, the lattice network (26, 26') including interconnected pores, and a matrix of a second, different material within the interconnected pores, the tuning including selecting a first acoustic impedance for the lattice network (26; 26') in correspondence with selecting a second, different acoustic impedance of the matrix such that the acoustic attenuation of the damper member is tuned to dampen the target vibrational mode, wherein the first material is a metallic material and the second material is a different metallic material.
A method for wireless communications by a user equipment, UE, comprising: receiving signaling indicating the UE is to transmit data in at least one subframe belonging to a first hybrid automatic repeat request HARQ process; receiving signaling indicating the UE is to also transmit the data in at least one subframe not belonging to the first HARQ process; transmitting data in the at least one subframe belonging to the first HARQ process and in the least one subframe not belonging to the first HARQ process; receiving signaling indicating that the UE is to retransmit the data in at least one subframe not belonging to the first HARQ process;and retransmitting the data on the at least one subframe not belonging to the first HARQ process. receiving signaling indicating the UE is to transmit data in at least one subframe belonging to a first hybrid automatic repeat request HARQ process; receiving signaling indicating the UE is to also transmit the data in at least one subframe not belonging to the first HARQ process; transmitting data in the at least one subframe belonging to the first HARQ process and in the least one subframe not belonging to the first HARQ process; receiving signaling indicating that the UE is to retransmit the data in at least one subframe not belonging to the first HARQ process;and retransmitting the data on the at least one subframe not belonging to the first HARQ process.