mhurhangee/ep-ind-claims huggingface dataset:
A receiver comprising one or more adjacent channel interference, ACI, filters designed to suppress interference in a desired frequency band associated with the receiver, comprising: an energy detector for determining an interference detection threshold based upon a desired predetermined probability of falsely detecting adjacent interference in the desired frequency band, for receiving a signal and determining a total signal power and fringe power associated with bordering frequency bands at and near the channel frequency boundaries for determining a ratio of the sum of the border band energy to the total received energy and for detecting with a predetermined probability of certainty whether adjacent channel interference is present in the desired frequency band using the interference detection threshold and the ratio of the sum of the border band energy to the total received energy; and a controller for determining to apply filtering to the received signal, by the one or more ACI filters, if the energy detector detects adjacent channel interference in the desired frequency band and to bypass the filtering of the received signal by the one or more ACI filters if the energy detector does not detect adjacent channel interference in the desired frequency band. an energy detector for determining an interference detection threshold based upon a desired predetermined probability of falsely detecting adjacent interference in the desired frequency band, for receiving a signal and determining a total signal power and fringe power associated with bordering frequency bands at and near the channel frequency boundaries for determining a ratio of the sum of the border band energy to the total received energy and for detecting with a predetermined probability of certainty whether adjacent channel interference is present in the desired frequency band using the interference detection threshold and the ratio of the sum of the border band energy to the total received energy; and a controller for determining to apply filtering to the received signal, by the one or more ACI filters, if the energy detector detects adjacent channel interference in the desired frequency band and to bypass the filtering of the received signal by the one or more ACI filters if the energy detector does not detect adjacent channel interference in the desired frequency band.
Patch antenna, comprising: - at least one electrically conductive patch (5A,5B), - at least one electrically conductive ground plane, - at least one feed connector (6A,6B) which is insulated from the ground plane and which is conductively connected to the at least one patch, and - at least one dielectric spacer structure for separating the at least one patch and the at least one ground plane, wherein the at least one patch is defined by at least a part of at least one base profile which is substantially supershaped, wherein said supershaped base profile is defined by the polar function: ρ d φ = 1 a cos m 1 4 φ n 2 / − + 1 b sin m 2 4 φ n 3 − 1 n 1 wherein: - ρd(φ) is a curve located in the XY-plane, - φ ∈ [0, 2π) is the angular coordinate, - m1 ≠ 0 and m2 ≠ 0, and - wherein at least one of n1, n2, and n3 does not equal 2, and preferably none of n1, n2, and n3 equals 2, characterized in that the at least one patch is configured to operate in a broad frequency range for which the emitted signal bandwidth exceeds the lesser of 500 MHz or 20% of the center frequency, and which preferably ranges from 2 GHz to 20 GHz, and wherein the at least one patch is further defined by the following values of the parameters of said polar function: - m1 equals m2 and ranges from 1 to 3.5; - a = b = 1; combined with either: n1 = 3 while n3 equals n2 and is chosen from 3, 1, and 0.7; n1 = 1 while n3 equals n2 and is chosen from 3, 2.5, and 1; n1 = 0.7 while n3 equals n2 and is 3; or n1 = 0.5 while n3 equals n2 and is 2.5. - at least one electrically conductive patch (5A,5B), - at least one electrically conductive ground plane, - at least one feed connector (6A,6B) which is insulated from the ground plane and which is conductively connected to the at least one patch, and - at least one dielectric spacer structure for separating the at least one patch and the at least one ground plane, - ρd(φ) is a curve located in the XY-plane, - φ ∈ [0, 2π) is the angular coordinate, - m1 ≠ 0 and m2 ≠ 0, and - wherein at least one of n1, n2, and n3 does not equal 2, - m1 equals m2 and ranges from 1 to 3.5; - a = b = 1; combined with either: n1 = 3 while n3 equals n2 and is chosen from 3, 1, and 0.7; n1 = 1 while n3 equals n2 and is chosen from 3, 2.5, and 1; n1 = 0.7 while n3 equals n2 and is 3; or n1 = 0.5 while n3 equals n2 and is 2.5. n1 = 3 while n3 equals n2 and is chosen from 3, 1, and 0.7; n1 = 1 while n3 equals n2 and is chosen from 3, 2.5, and 1; n1 = 0.7 while n3 equals n2 and is 3; or n1 = 0.5 while n3 equals n2 and is 2.5.
A spring system for an aircraft with at least one spring and with at least one spring receiving means, wherein the spring receiving means includes at least one lug head to which the spring is attachable or attached, wherein the lug head includes a thread onto which the spring can be screwed or is screwed, and wherein the thread includes at least one thread portion which has a thread pitch ([L1-L2]) in the region of the operating pitch of the spring, characterized in that the thread at least partly has a variable pitch.
A method of controlling a frequency and current output from a power-conversion unit, which is included in a frequency speed control apparatus for an induction motor, in accordance with a rotational speed instruction value (ωr*), characterised in that the value of said current is corrected such that if a sum value (ωs**) is zero, a d-axis current instruction value (Id**) remains uncorrected, and when said sum value (ωs**) has an amount other than zero, the d-axis current instruction value (Id**) is increased, wherein the sum value is determined according to ωs * * = ωs * + ωs ∧ wherein ωs^ is an estimated slip frequency value (ωs^) calculated according to the equation ω ⁢ s ∧ = 1 / T ⁢ 2 * Δd / Δp + ω ⁢ 1 * M * / L ⁢ 2 * ⁢ φ ⁢ 2 ⁢ d * and ωs* is a calculated slip frequency value (ωs*) calculated according to the equation ω ⁢ s * = Iq * • M * / T ⁢ 2 * • φ ⁢ 2 ⁢ d * wherein T2* is a secondary time constant, Δd is output by a d-axis current control unit in accordance with a difference between the d-axis current instruction value (Id**) and a d-axis current (Id), Δq is output by a q-axis current control unit in accordance with a difference between a q-axis current instruction value (Iq*), and a q-axis current (Iq), ω1* is an output frequency instruction value, M* is an exciting inductance value, L2* is secondary inductance value, Φ2d* is a secondary q-axis flux reference value, Iq* is a q-axis current instruction value. T2* is a secondary time constant, Δd is output by a d-axis current control unit in accordance with a difference between the d-axis current instruction value (Id**) and a d-axis current (Id), Δq is output by a q-axis current control unit in accordance with a difference between a q-axis current instruction value (Iq*), and a q-axis current (Iq), ω1* is an output frequency instruction value, M* is an exciting inductance value, L2* is secondary inductance value, Φ2d* is a secondary q-axis flux reference value, Iq* is a q-axis current instruction value.
A refrigerator, comprising: an ice maker positioned in the refrigerator and configured to make ice; an ice making tray associated with the ice maker and configured to retain water to be frozen; a plate positioned at an open side and covering an upper side of the ice making tray and configured to reduce water overflow from the ice making tray; a cool air inlet passage configured to allow cool air to be introduced to an area inside of the plate; and a cool air outlet passage that is separate from the cool air inlet passage, and configured to allow release, to an exterior of the plate, of the cool air introduced to the area inside of the plate, characterized in that the refrigerator further comprises: a driving unit coupled to the ice making tray or the plate and configured to rotate the ice making tray or the plate; and a control unit configured to provide a control signal to the driving unit to rotate the ice making tray or the plate, wherein the control unit is configured to detect a status of water retained in the ice making tray and provide the control signal to the driving unit based on the detected status, wherein the cool air outlet passage is made by a relative rotation between the ice making tray and the plate. an ice maker positioned in the refrigerator and configured to make ice; an ice making tray associated with the ice maker and configured to retain water to be frozen; a plate positioned at an open side and covering an upper side of the ice making tray and configured to reduce water overflow from the ice making tray; a cool air inlet passage configured to allow cool air to be introduced to an area inside of the plate; and a cool air outlet passage that is separate from the cool air inlet passage, and configured to allow release, to an exterior of the plate, of the cool air introduced to the area inside of the plate, characterized in that the refrigerator further comprises: a driving unit coupled to the ice making tray or the plate and configured to rotate the ice making tray or the plate; and a control unit configured to provide a control signal to the driving unit to rotate the ice making tray or the plate, wherein the control unit is configured to detect a status of water retained in the ice making tray and provide the control signal to the driving unit based on the detected status, wherein the cool air outlet passage is made by a relative rotation between the ice making tray and the plate. a driving unit coupled to the ice making tray or the plate and configured to rotate the ice making tray or the plate; and a control unit configured to provide a control signal to the driving unit to rotate the ice making tray or the plate, wherein the control unit is configured to detect a status of water retained in the ice making tray and provide the control signal to the driving unit based on the detected status, wherein the cool air outlet passage is made by a relative rotation between the ice making tray and the plate.
A curable resin composition comprising a polyester resin having a (meth)acryloyl group and a monofunctional (meth)acrylate compound and/or a difunctional (meth)acrylate compound, wherein the average functional group number of (meth)acryloyl groups possessed by the polyester resin is within a range of 1.8 or more and 2.2 or less; the content of the polyester resin in the curable resin composition is 50% by mass or more; and the monofunctional (meth)acrylate compound is one or more selected from the group consisting of (meth)acryloyl morpholine, isobornyl (meth)acrylate, dicyclopentenyl (meth)acrylate, and dicyclopentanyl (meth)acrylate. wherein the average functional group number of (meth)acryloyl groups possessed by the polyester resin is within a range of 1.8 or more and 2.2 or less; the content of the polyester resin in the curable resin composition is 50% by mass or more; and the monofunctional (meth)acrylate compound is one or more selected from the group consisting of (meth)acryloyl morpholine, isobornyl (meth)acrylate, dicyclopentenyl (meth)acrylate, and dicyclopentanyl (meth)acrylate.
Crosslinking system comprising at least (a) a polyacid compound selected from organopolyphosphorus compounds of general formula and polysulfonic acids of general formula, and (b) a polyphenol compound comprising at least one aromatic ring comprising 6 carbon atoms and at least two vicinal hydroxyl -OH functions; in which - A represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms, and - the R symbols represent, independently of one another, a hydrocarbon group comprising at least 1 carbon atom or a hydrogen atom; in which - A' represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms. (a) a polyacid compound selected from organopolyphosphorus compounds of general formula and polysulfonic acids of general formula, and (b) a polyphenol compound comprising at least one aromatic ring comprising 6 carbon atoms and at least two vicinal hydroxyl -OH functions; in which - A represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms, and - the R symbols represent, independently of one another, a hydrocarbon group comprising at least 1 carbon atom or a hydrogen atom; in which - A' represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms. - A represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms, and - the R symbols represent, independently of one another, a hydrocarbon group comprising at least 1 carbon atom or a hydrogen atom; in which - A' represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms.
A method for transferring a Radio Access Technology/Frequency of Selection Priority, RFSP, index parameter, characterized in that, the method comprises the steps of: a Mobility Management entity, MME, receiving a voice capability and setting reported from a User Equipment, UE; wherein the UE is in an idle mode and has no uplink data pending,and the MME receives no downlink data notification message for the UE. the MME generating an RFSP index according to a subscribed RFSP index, the voice capability and setting reported from the UE and a configuration policy of an operator (102, 301); the MME determining whether the generated RFSP index differs from an RFSP index in use (103, 302); and the MME replacing the RFSP index in use with the generated RFSP index (104, 303) and transferring the generated RFSP index to a Radio Access Network, RAN (105, 304) upon determining that the generated RFSP index differs from the RFSP index in use; a Mobility Management entity, MME, receiving a voice capability and setting reported from a User Equipment, UE; wherein the UE is in an idle mode and has no uplink data pending,and the MME receives no downlink data notification message for the UE. the MME generating an RFSP index according to a subscribed RFSP index, the voice capability and setting reported from the UE and a configuration policy of an operator (102, 301); the MME determining whether the generated RFSP index differs from an RFSP index in use (103, 302); and the MME replacing the RFSP index in use with the generated RFSP index (104, 303) and transferring the generated RFSP index to a Radio Access Network, RAN (105, 304) upon determining that the generated RFSP index differs from the RFSP index in use;
An axle assembly comprising: an electric motor having a rotor that is rotatable about a first axis; a rotor shaft that is operatively connected to the rotor and is rotatable about the first axis; a drive pinion that is rotatable about a drive pinion axis and that includes a gear portion and a shaft portion; a countershaft transmission that operatively connects the rotor shaft to the drive pinion; and a differential assembly that is operatively connected to the drive pinion, wherein the electric motor and the countershaft transmission are positioned on opposite sides of the differential assembly, the differential assembly has a differential case and a ring gear is fixedly mounted to the differential case such that the differential case and the ring gear are rotatable about a second axis, the ring gear having a back side and a set of ring gear teeth that face away from the back side and mesh with a gear portion of the drive pinion, characterized in that the ring gear is disposed closer to the rotor shaft than the differential case is positioned to the rotor shaft, and the back side faces toward the rotor shaft. an electric motor having a rotor that is rotatable about a first axis; a rotor shaft that is operatively connected to the rotor and is rotatable about the first axis; a drive pinion that is rotatable about a drive pinion axis and that includes a gear portion and a shaft portion; a countershaft transmission that operatively connects the rotor shaft to the drive pinion; and a differential assembly that is operatively connected to the drive pinion, wherein the electric motor and the countershaft transmission are positioned on opposite sides of the differential assembly, the differential assembly has a differential case and a ring gear is fixedly mounted to the differential case such that the differential case and the ring gear are rotatable about a second axis, the ring gear having a back side and a set of ring gear teeth that face away from the back side and mesh with a gear portion of the drive pinion, characterized in that the ring gear is disposed closer to the rotor shaft than the differential case is positioned to the rotor shaft, and the back side faces toward the rotor shaft.
A sparse three-dimensional multi-scale grid turbulence generator, comprising a fluid flow conduit and a set of turbulence generator elements (100a, 100b, 100c, 100d), each of the elements having a set of fluid flow passages (101a, 101b, 101c, 101d) defined therethrough, the set of turbulence generator elements (100a, 100b, 100c, 100d) being positioned within the fluid flow conduit and each of the turbulence generator elements (100a, 100b, 100c, 100d) being spaced apart from adjacent ones of the turbulence generator elements (100a, 100b, 100c, 100d), each successive one of the turbulence generator elements (100a, 100b, 100c, 100d) increasing in number and decreasing in scale the corresponding set of fluid flow passages (101a, 101b, 101c, 101d) with respect to the previous one of the turbulence generator elements (100a, 100b, 100c, 100d), such that turbulence generation in fluid flow is selectively adjusted by all of the turbulence generator elements (100a, 100b, 100c, 100d) downstream of the set of turbulence generator elements (100a, 100b, 100c, 100d), wherein each respective generation or level (L1, L2, L3, L4) of the turbulence generator elements (100a, 100b, 100c, 100d) in the multi-scale grid is contained in its own respective holding frame (159a, 159b, 159c, 159d), wherein within each of the holding frames (159a, 159b, 159c, 159d), the respective turbulence generator elements (100a, 100b, 100c, 100d) are held in their planar arrangement by respective wire suspension members (77a, 77b, 77c, 77d), the effective grid blockage ratio within the fluid flow conduit thereby being reduced.
An implantable medical device, comprising: a housing coupled to electrodes (510, 518); a power source within the housing; memory, within the housing, configured to store program instructions; a sensing circuit configured to sense cardiac signals from the electrodes (510, 518), the cardiac signals representative of a ventricular tachycardia episode that comprises at least a select number of VT events having corresponding VT cycle lengths; and one or more processors within the housing, wherein, responsive to execution of the program instructions, the one or more processors are configured to: analyze the VT cycle length to define an anti-tachycardia pacing therapy that comprises a first coupling interval; deliver a first ATP pulse that is spaced the first coupling interval after a reference refractory VT event sensed at the electrodes (510, 518); and deliver a second ATP pulse following the first ATP pulse by a non-stimulation segment that is at least one and three-quarters (1.75) times a projected VT cycle length, characterized in that the first coupling interval is a programmed percentage of a VT cycle length (206, 216) to time the first ATP pulse to occur during a non-refractory state of tissue proximate to the electrodes (510, 518). a housing coupled to electrodes (510, 518); a power source within the housing; memory, within the housing, configured to store program instructions; a sensing circuit configured to sense cardiac signals from the electrodes (510, 518), the cardiac signals representative of a ventricular tachycardia episode that comprises at least a select number of VT events having corresponding VT cycle lengths; and one or more processors within the housing, wherein, responsive to execution of the program instructions, the one or more processors are configured to: analyze the VT cycle length to define an anti-tachycardia pacing therapy that comprises a first coupling interval; deliver a first ATP pulse that is spaced the first coupling interval after a reference refractory VT event sensed at the electrodes (510, 518); and deliver a second ATP pulse following the first ATP pulse by a non-stimulation segment that is at least one and three-quarters (1.75) times a projected VT cycle length, characterized in that the first coupling interval is a programmed percentage of a VT cycle length (206, 216) to time the first ATP pulse to occur during a non-refractory state of tissue proximate to the electrodes (510, 518). analyze the VT cycle length to define an anti-tachycardia pacing therapy that comprises a first coupling interval; deliver a first ATP pulse that is spaced the first coupling interval after a reference refractory VT event sensed at the electrodes (510, 518); and deliver a second ATP pulse following the first ATP pulse by a non-stimulation segment that is at least one and three-quarters (1.75) times a projected VT cycle length, characterized in that the first coupling interval is a programmed percentage of a VT cycle length (206, 216) to time the first ATP pulse to occur during a non-refractory state of tissue proximate to the electrodes (510, 518).
A lighting configuration comprising a first light source designed to emit light having a first wavelength peak in the range from 500 to 530nm; a second light source designed to emit light having a second wavelength peak in the range from 600 to 640nm and a third light source designed to emit light having a third wavelength peak in the range from 440 to 460 nm, no light source having a wavelength substantially corresponding to the photopic maximum, said lighting configuration providing a spectral power distribution with a Scotopic/Photopic (S/P) ratio between 2 and 5 and a radiated power at 555 nm that is less than 10 to 50% of the radiated power at the wavelength of the second wavelength peak.