mhurhangee/ep-ind-claims huggingface dataset:
A rotor assembly for an electric machine, the rotor assembly comprising a rotor and a plurality of magnets, the magnets being configured to form a plurality of rotor poles and each rotor pole having a central pole axis extending in a radial direction from a longitudinal axis of the rotor; wherein each rotor pole comprises: a first magnet layer comprising one or more first magnet, the one or more first magnet comprising a central first magnet (10A-1) having a first transverse axis disposed substantially perpendicular to the central pole axis; a further magnet layer radially inset from the first magnet layer and comprising two or more second magnets (10C, the second magnets comprising a pair of inclined second magnets each having a first transverse axis extending at an acute angle to the central pole axis; wherein, in relation to the central pole axis, a portion of each of the inclined second magnets is disposed inboard of an end of the one or more central first magnet to form an overlapping arrangement, wherein the central first magnet comprises opposing first and second ends, wherein a first central angle is formed between two first radial lines extending from the longitudinal axis and coincident with the first and second ends respectively of the central first magnet; the first central angle being defined by the equation: A 1 > 1 4 ⋅ 360 2 p where A1 is the first central angle; and p is the number of pole pairs in the rotor core. a first magnet layer comprising one or more first magnet, the one or more first magnet comprising a central first magnet (10A-1) having a first transverse axis disposed substantially perpendicular to the central pole axis; a further magnet layer radially inset from the first magnet layer and comprising two or more second magnets (10C, the second magnets comprising a pair of inclined second magnets each having a first transverse axis extending at an acute angle to the central pole axis; wherein, in relation to the central pole axis, a portion of each of the inclined second magnets is disposed inboard of an end of the one or more central first magnet to form an overlapping arrangement, wherein the central first magnet comprises opposing first and second ends, wherein a first central angle is formed between two first radial lines extending from the longitudinal axis and coincident with the first and second ends respectively of the central first magnet; the first central angle being defined by the equation: A 1 > 1 4 ⋅ 360 2 p where A1 is the first central angle; and p is the number of pole pairs in the rotor core.
A method of protecting an electronic device comprising the steps of: generating a multi-label classification data model comprising security event groups labeled with security actions, each group comprising security events and representing a security event scenario; detecting one or more security events representing a security event scenario; predicting, using the multi-label classification data model, one or more security actions based on the security event scenario; and implementing the predicted one or more security actions on the electronic device assigning a confidence level to the detected security events; when the confidence level is above a threshold, automatically proceeding to the implementing step; when the confidence level is below the threshold, notifying an administrator and proceeding to the implementing step upon instruction from the administrator. generating a multi-label classification data model comprising security event groups labeled with security actions, each group comprising security events and representing a security event scenario; detecting one or more security events representing a security event scenario; predicting, using the multi-label classification data model, one or more security actions based on the security event scenario; and implementing the predicted one or more security actions on the electronic device assigning a confidence level to the detected security events; when the confidence level is above a threshold, automatically proceeding to the implementing step; when the confidence level is below the threshold, notifying an administrator and proceeding to the implementing step upon instruction from the administrator.
An antenna comprising: a radial waveguide defining a waveguide region between opposed first and second surfaces (206, 208); a radio frequency, RF, probe disposed in the waveguide region for generating RF signals; a plurality of radiating slot antenna elements disposed on the first surface for emitting the RF signals from the waveguide region; a plurality of spaced apart conductive elements disposed within the waveguide region; a plurality of tunable elements, each tunable element comprising a quarter wavelength RF choke coupled through a variable capacitance and an inductive line to a respective one of the conductive elements; a plurality of DC control lines, each DC control line being connected to at least one of the tunable elements to adjust the variable capacitance thereof; and a control circuit coupled to the DC control lines and configured to selectively apply DC current values to adjust the variable capacitances of the tunable elements to control a propagation direction of the RF signals from the RF probe. a radial waveguide defining a waveguide region between opposed first and second surfaces (206, 208); a radio frequency, RF, probe disposed in the waveguide region for generating RF signals; a plurality of radiating slot antenna elements disposed on the first surface for emitting the RF signals from the waveguide region; a plurality of spaced apart conductive elements disposed within the waveguide region; a plurality of tunable elements, each tunable element comprising a quarter wavelength RF choke coupled through a variable capacitance and an inductive line to a respective one of the conductive elements; a plurality of DC control lines, each DC control line being connected to at least one of the tunable elements to adjust the variable capacitance thereof; and a control circuit coupled to the DC control lines and configured to selectively apply DC current values to adjust the variable capacitances of the tunable elements to control a propagation direction of the RF signals from the RF probe.
A method in a network entity of delay calibration for an orthogonal frequency division multiplexing, OFDM, system in a mobile communication system, comprising: estimating a time delay difference according to a phase difference between two adjacent sub-carriers; characterized by comprising: dividing the estimated time delay difference into a coarse time delay and a fine time delay; and compensating the coarse time delay in time domain and the fine time delay in frequency domain respectively, wherein the coarse time delay Δ t 1 and the fine time delay Δ t 2 are expressed as follows: Δ t 1 = ⌈ Δ t × P / T s ⌉ × T s / P, Δ t 2 = Δ t − Δ t 1, and − Ts / P < Δ t 2 ≤ 0, in which Δ t is an estimated time delay difference; Ts is an interval of samples; P is an oversampling rate and P ≥1; and ┌ x ┐ denotes to find the closest integer that is no smaller than x. estimating a time delay difference according to a phase difference between two adjacent sub-carriers; characterized by comprising: dividing the estimated time delay difference into a coarse time delay and a fine time delay; and compensating the coarse time delay in time domain and the fine time delay in frequency domain respectively, wherein the coarse time delay Δ t 1 and the fine time delay Δ t 2 are expressed as follows: Δ t 1 = ⌈ Δ t × P / T s ⌉ × T s / P, Δ t 2 = Δ t − Δ t 1, and − Ts / P < Δ t 2 ≤ 0, in which Δ t is an estimated time delay difference; Ts is an interval of samples; P is an oversampling rate and P ≥1; and ┌ x ┐ denotes to find the closest integer that is no smaller than x. dividing the estimated time delay difference into a coarse time delay and a fine time delay; and compensating the coarse time delay in time domain and the fine time delay in frequency domain respectively, wherein the coarse time delay Δ t 1 and the fine time delay Δ t 2 are expressed as follows: Δ t 1 = ⌈ Δ t × P / T s ⌉ × T s / P, Δ t 2 = Δ t − Δ t 1, and − Ts / P < Δ t 2 ≤ 0, in which Δ t is an estimated time delay difference; Ts is an interval of samples; P is an oversampling rate and P ≥1; and ┌ x ┐ denotes to find the closest integer that is no smaller than x.
Steering control system for a watercraft comprising - a pivoting steering tiller manually operated and operatively connected to a direction changing member acting on or into the water, such as a rudder blade or an outboard motor; - a locking device locking the steering pivoting steering tiller in the steering position (21, 121, 221), said locking device being adapted to be activated for maintaining said pivoting steering tiller in a predetermined pivoting position and being adapted to be deactivated for allowing said pivoting steering tiller to be moved in a pivoting position to carry out a change in the direction, wherein said locking device is of the hydraulic type, that is oil-hydraulic type and it comprises a hydraulic cylinder comprising two chambers separated by a piston to which a rod is connected, said rod being fastened stationary to the transom of the watercraft and the cylindrical body of said cylinder being movable along said rod and is connected to a steering arm of the outboard motor or of the rudder blade, or vice versa, there being provided a closed circuit for flowing the oil between said two chambers of said cylinder, within which circuit there is provided a valve to open and close said circuit, said locking device being adapted to be activated or deactivated by an actuator that opens or closes the valve opening and closing the circuit, characterized in that the system comprises a pivoting fastening support for said pivoting steering tiller, optionally in the form of an interposition element between said pivoting steering tiller and said watercraft direction changing member, said pivoting steering tiller being articulated to the interposition element in a manner to pivot about an axis which is vertical and anyway substantially parallel to the steering axis, for a limited angular displacement arc that is a displacement stroke of the pivoting steering tiller independent from the pivoting fastening support and from the steering rotation of the outboard motor, which stroke corresponds to an actuation travel of a valve and a member transforming the pivoting movement of the pivoting steering tiller with respect to the interposition element into commands actuating the valve. - a pivoting steering tiller manually operated and operatively connected to a direction changing member acting on or into the water, such as a rudder blade or an outboard motor; - a locking device locking the steering pivoting steering tiller in the steering position (21, 121, 221), said locking device being adapted to be activated for maintaining said pivoting steering tiller in a predetermined pivoting position and being adapted to be deactivated for allowing said pivoting steering tiller to be moved in a pivoting position to carry out a change in the direction,
A wireless system, comprising: an access point, AP,; a cluster of wireless stations, STAs,; one or more cluster leads, the cluster leads being ones of the STAs designated to receive data from the STAs and to provide the data to other cluster leads, or to the AP, or both; characterized in that: the AP is configured to select the one or more cluster leads depending on measured strengths of received signals, wherein the number of cluster leads depends on a channel coherence time. an access point, AP,; a cluster of wireless stations, STAs,; one or more cluster leads, the cluster leads being ones of the STAs designated to receive data from the STAs and to provide the data to other cluster leads, or to the AP, or both; characterized in that: the AP is configured to select the one or more cluster leads depending on measured strengths of received signals, wherein the number of cluster leads depends on a channel coherence time.
A respirator comprising: an air supply unit arranged to deliver air at its output; headgear comprising a cradle for interfacing with a user's head, and a face covering from within which the user breathes; a tube to receive air from the air supply unit; wherein there is provided an interface component to receive air from the tube and to deliver said air within the face covering and a vibration decoupler, provided between the tube and the interface component, such that in use vibrations from the air supply unit and tube are reduced, characterised in that the vibration decoupler is engaged with the tube and interface component by tube fastening elements, wherein the vibration decoupler is provided at one end of the tube, the downstream end of the tube, and wherein the vibration decoupler comprises a non self-supporting material, which comprises an airtight fabric. an air supply unit arranged to deliver air at its output; headgear comprising a cradle for interfacing with a user's head, and a face covering from within which the user breathes; a tube to receive air from the air supply unit; wherein there is provided an interface component to receive air from the tube and to deliver said air within the face covering and a vibration decoupler, provided between the tube and the interface component, such that in use vibrations from the air supply unit and tube are reduced, characterised in that the vibration decoupler is engaged with the tube and interface component by tube fastening elements, wherein the vibration decoupler is provided at one end of the tube, the downstream end of the tube, and wherein the vibration decoupler comprises a non self-supporting material, which comprises an airtight fabric.
A power conversion apparatus comprising: a plurality of unit modules each including: a DC-AC conversion unit for converting a direct current into an alternating current; a transformer for receiving the alternating current converted by the DC-AC conversion unit; and a plurality (k) of AC-DC conversion units for converting the alternating current from the transformer into the direct current, wherein the plurality of unit modules are connected in parallel at an input side of the DC-AC conversion unit, characterized in that the plurality of unit modules are connected in series at an output side of the AC-DC conversion unit; the transformer in each of the unit modules is a multiple winding transformer having a plurality (k) of secondary windings; the secondary windings are connected to respective inputs of the AC-DC conversion units; outputs from the plurality (k) of the AC-DC conversion units are connected in series; and high-voltage circuits in the plurality of unit modules are all stored in an oil-immersed housing. a plurality of unit modules each including: a DC-AC conversion unit for converting a direct current into an alternating current; a transformer for receiving the alternating current converted by the DC-AC conversion unit; and a plurality (k) of AC-DC conversion units for converting the alternating current from the transformer into the direct current, wherein the plurality of unit modules are connected in parallel at an input side of the DC-AC conversion unit, characterized in that the plurality of unit modules are connected in series at an output side of the AC-DC conversion unit; a DC-AC conversion unit for converting a direct current into an alternating current; a transformer for receiving the alternating current converted by the DC-AC conversion unit; and a plurality (k) of AC-DC conversion units for converting the alternating current from the transformer into the direct current, wherein the plurality of unit modules are connected in parallel at an input side of the DC-AC conversion unit, characterized in that the plurality of unit modules are connected in series at an output side of the AC-DC conversion unit; the transformer in each of the unit modules is a multiple winding transformer having a plurality (k) of secondary windings; the secondary windings are connected to respective inputs of the AC-DC conversion units; outputs from the plurality (k) of the AC-DC conversion units are connected in series; and high-voltage circuits in the plurality of unit modules are all stored in an oil-immersed housing.
A process transmitter comprising: a sensor for producing a process signal that is a function of a process parameter; a first signal path in which the process signal is digitally compensated to produce a digitally compensated process signal; a second signal path in which the process signal is digitally filtered to produce a digitally filtered process signal and subject to less delay than the first signal path characterised by a third signal path in which the process signal is digitally filtered and inverted to produce a delayed inverted process signal; the third signal path subject to greater delay than the second signal path; and an intermediate summing circuit for adding the delayed inverted process signal to the second path to produce the digitally filtered process signal an output summing circuit for summing the digitally compensated process signal and the digitally filtered process signal to produce a fast digital compensated process signal. a sensor for producing a process signal that is a function of a process parameter; a first signal path in which the process signal is digitally compensated to produce a digitally compensated process signal; a second signal path in which the process signal is digitally filtered to produce a digitally filtered process signal and subject to less delay than the first signal path characterised by a third signal path in which the process signal is digitally filtered and inverted to produce a delayed inverted process signal; the third signal path subject to greater delay than the second signal path; and an intermediate summing circuit for adding the delayed inverted process signal to the second path to produce the digitally filtered process signal an output summing circuit for summing the digitally compensated process signal and the digitally filtered process signal to produce a fast digital compensated process signal.
A tobacco plant comprising at least one mutation in a HMA gene, wherein the non-mutated HMA gene comprises the nucleotide sequence of SEQ ID NO:1 or a homolog sequence with at least 90% identity to the sequence of SEQ ID NO:1, wherein the mutation causes a substitution or a deletion or an insertion of at least one amino acid in the polypeptide encoded by the nucleotide sequence and wherein the mutation reduces the heavy metal uptake by the leaves of the plant by at least 30% in relation to the heavy metal uptake of plants comprising SEQ ID NO:1 or the homolog.
A fuel cell system (10; 110) comprising: a fuel cell stack (12; 212; 312) including an anode plate and a cathode plate arranged on opposing sides of a proton exchange membrane, and coolant channels including an internal coolant passage (48; 148; 248) in thermal contact with at least one of the cathode and anode plates (12, 14); characterized in that the fuel cell system (10;110) further comprises: a pressure drop device (24; 124; 224) provided in the coolant channels and configured to provide a sub- atmospheric pressure within the coolant passage; and a compression device fluidly interconnected to and downstream from the internal coolant passage, in a coolant steam loop configured to convey a sub-atmospheric pressure coolant steam, the compression device being configured to increase the pressure and the temperature of the sub-atmospheric coolant steam to a super- atmospheric pressure and to maintain the coolant steam within a steam region of a pressure-enthalpy curve. a fuel cell stack (12; 212; 312) including an anode plate and a cathode plate arranged on opposing sides of a proton exchange membrane, and coolant channels including an internal coolant passage (48; 148; 248) in thermal contact with at least one of the cathode and anode plates (12, 14); characterized in that the fuel cell system (10;110) further comprises: a pressure drop device (24; 124; 224) provided in the coolant channels and configured to provide a sub- atmospheric pressure within the coolant passage; and a compression device fluidly interconnected to and downstream from the internal coolant passage, in a coolant steam loop configured to convey a sub-atmospheric pressure coolant steam, the compression device being configured to increase the pressure and the temperature of the sub-atmospheric coolant steam to a super- atmospheric pressure and to maintain the coolant steam within a steam region of a pressure-enthalpy curve. a pressure drop device (24; 124; 224) provided in the coolant channels and configured to provide a sub- atmospheric pressure within the coolant passage; and a compression device fluidly interconnected to and downstream from the internal coolant passage, in a coolant steam loop configured to convey a sub-atmospheric pressure coolant steam, the compression device being configured to increase the pressure and the temperature of the sub-atmospheric coolant steam to a super- atmospheric pressure and to maintain the coolant steam within a steam region of a pressure-enthalpy curve.
A cosmetic skin care composition, comprising: a) a combination of palmitoyl dipeptide-7 (pal-KT) and acetyl tetrapeptide-11 (ac-PPYL) wherein the pal-KT is present at 0.00005% to 5% by weight of the composition, wherein the ac-PPYL is present at 0.00005% to 5% by weight of the composition, wherein the pal-KT and ac-PPYL are present at a weight ratio of between 10:1 and 1:10; and b) a dermatologically acceptable carrier. a) a combination of palmitoyl dipeptide-7 (pal-KT) and acetyl tetrapeptide-11 (ac-PPYL) wherein the pal-KT is present at 0.00005% to 5% by weight of the composition, wherein the ac-PPYL is present at 0.00005% to 5% by weight of the composition, wherein the pal-KT and ac-PPYL are present at a weight ratio of between 10:1 and 1:10; and wherein the pal-KT is present at 0.00005% to 5% by weight of the composition, wherein the ac-PPYL is present at 0.00005% to 5% by weight of the composition, wherein the pal-KT and ac-PPYL are present at a weight ratio of between 10:1 and 1:10; and b) a dermatologically acceptable carrier.
A method of transmitting a sidelink signal by a user equipment, UE, in a wireless communication system, the method comprising: determining transmission powers of a physical sidelink control channel, PSCCH, and a physical sidelink shared channel, PSSCH; and transmitting the PSCCH and the PSSCH at the determined transmission powers; characterized in that a power offset value for increasing a transmission power is not applied upon determining the transmission power of the PSCCH, when the PSCCH and the PSSCH are transmitted in one subframe, and a modulation and coding scheme, MCS, level or a modulation order is a preset value or higher. determining transmission powers of a physical sidelink control channel, PSCCH, and a physical sidelink shared channel, PSSCH; and transmitting the PSCCH and the PSSCH at the determined transmission powers; characterized in that a power offset value for increasing a transmission power is not applied upon determining the transmission power of the PSCCH, when the PSCCH and the PSSCH are transmitted in one subframe, and a modulation and coding scheme, MCS, level or a modulation order is a preset value or higher.