mhurhangee/ep-ind-claims huggingface dataset:
A communication device comprising: at least two receiver ports (201,...204) configured to simultaneously receive receive signals respectively, and a receiver unit configured to recover from the receive signals at least a first transmit signal transmitted to the communication device via a wired transmission channel, the receiver unit including a decoder unit configured to decode the receive signals using a multi-link decoder algorithm using parameters derived from a first channel state information describing the wired transmission channel connecting the communication device and a first first communication device, the first first communication device comprising at least two transmit ports (101, 102) configured to simultaneously transmit signals, and second channel state information describing at least one interference channel connecting the communication device and a second first communication device, the second first communication device comprising at least two transmit ports (101, 102) configured to simultaneously transmit signals, via which one or more second transmit signals arrive at the at least one receiver port (201,...,204) of the communication device, the one or more second transmit signals including other data content than the first transmit signal; wherein the communication device, the first first communication device and the second first communication device share a common transmission medium being an electric power wiring.
An engine flywheel that is able to develop an inertia large enough such that sudden loads on an engine connected to the engine flywheel are evened out, the engine flywheel comprising: a first rotor element configured to be coupled to a drive shaft for rotation with the drive shaft; - at least one magnet carried by the first rotor element, the at least one magnet being configured for positioning with respect to a stator to generate electrical current upon rotation of the first rotor element; and a second rotor element configured to be coupled to the drive shaft for rotation with the drive shaft, the second rotor element comprising a braking surface configured for engagement with a braking element to slow rotation of the second rotor element. a first rotor element configured to be coupled to a drive shaft for rotation with the drive shaft; - at least one magnet carried by the first rotor element, the at least one magnet being configured for positioning with respect to a stator to generate electrical current upon rotation of the first rotor element; and - at least one magnet carried by the first rotor element, the at least one magnet being configured for positioning with respect to a stator to generate electrical current upon rotation of the first rotor element; and a second rotor element configured to be coupled to the drive shaft for rotation with the drive shaft, the second rotor element comprising a braking surface configured for engagement with a braking element to slow rotation of the second rotor element.
A control apparatus for a capacitive electromechanical transducer that includes cells each including first and second electrodes (102, 105) that face each other with a gap being interposed in between, the control apparatus comprising: a driving/detecting unit that is configured to perform a driving operation to cause the second electrode to vibrate and transmit elastic waves by generating an AC electrostatic attractive force between the first and second electrodes (102, 105), and a detecting operation to detect a change of capacitance between the first and second electrodes (102, 105), the change of capacitance being caused by the second electrode vibrating upon receipt of elastic waves; and an external stress applying unit that is configured to change an external stress to be applied to the second electrode, wherein when the driving/detecting unit is configured to perform the driving operation, the driving/detecting unit is configured to adjust frequency characteristics in a driving signal supplied to the capacitive electromechanical transducer, corresponding to the change of the external stress, characterized in that when the driving/detecting unit is configured to perform the detecting operation, the driving/detecting unit is configured to adjust frequency characteristics of a current detecting unit in the driving/detecting unit, corresponding to the change of the external stress. a driving/detecting unit that is configured to perform a driving operation to cause the second electrode to vibrate and transmit elastic waves by generating an AC electrostatic attractive force between the first and second electrodes (102, 105), and a detecting operation to detect a change of capacitance between the first and second electrodes (102, 105), the change of capacitance being caused by the second electrode vibrating upon receipt of elastic waves; and an external stress applying unit that is configured to change an external stress to be applied to the second electrode,
Construction element for walls and for wall lining, comprising at least one layer of lining material and one light inner layer attached to the lining material by drying to form a single body, characterised in that said inner layer is lightened natural lime.
A product comprising primers for inferring activity of cellular signaling pathways by determining the expression levels of sets of target genes of the respective cellular signaling pathways wherein the cellular signaling pathways comprise a Wnt pathway, an ER pathway, an AR pathway and a Hedgehog pathway, wherein the set of target genes of the Wnt pathway comprises more than three target genes selected from the group comprising: KIAA1199, AXIN2, RNF43, TBX3, TDGF1, SOX9, ASCL2, IL8, SP5, ZNRF3, KLF6, CCND1, DEFA6 and FZD7, wherein the set of target genes of the ER pathway comprises at least three target genes selected from the group comprising: CDH26, SGK3, PGR, GREB1, CA12, XBP1, CELSR2, WISP2, DSCAM, ERBB2, CTSD, TFF1 and NRIP1, wherein the set of target genes of the Hedgehog pathway comprises at least three target genes selected from the group comprising: GLI1, PTCH1, PTCH2, IGFBP6, SPP1, CCND2, FST, FOXL1, CFLAR, TSC22D1, RAB34, S100A9, S100A7, MYCN, FOXM1, GLI3, TCEA2, FYN and CTSL1, wherein the set of target genes of the AR pathway comprises at least three target genes selected from the group comprising: KLK2, PMEPA1, TMPRSS2, NKX3-1, ABCC4, KLK3, FKBP5, ELL2, UGT2B15, DHCR24, PPAP2A, NDRG1, LRIG1, CREB3L4, LCP1, GUCY1A3, AR and EAF2, and wherein the product is a PCR kit.
A toilet having: a bowl for receiving human waste, and a wiper; wherein the wiper is movable to remove residual waste from an inside surface of the bowl by wiping the inside surface of the bowl; characterised in that the bowl is moveable between a waste receiving position and a waste emptied position, said movement being provided based on a waste emptying actuation by a user of the toilet; and the movement of the wiper is coupled to the movement of the bowl, the wiper being configured to move during the movement of the bowl, for at least a part of the movement of the bowl between the waste receiving position and the waste emptied position. a bowl for receiving human waste, and a wiper; wherein the wiper is movable to remove residual waste from an inside surface of the bowl by wiping the inside surface of the bowl; characterised in that the bowl is moveable between a waste receiving position and a waste emptied position, said movement being provided based on a waste emptying actuation by a user of the toilet; and the movement of the wiper is coupled to the movement of the bowl, the wiper being configured to move during the movement of the bowl, for at least a part of the movement of the bowl between the waste receiving position and the waste emptied position.
A method of driving a solenoid valve comprising the steps of: - generating a current command value (Is) based on a current target value (It), wherein a ripple current value (Ir) is superimposed on said current target value (It); - comparing said current command value (Is) with a measured current value (Im) and generating a difference current value (Id); - generating a current control value (Ip) from said difference current value (Id) in a current regulator; and - generating a control signal for driving said solenoid valve from said current control value (Ip) in a control signal generator. - generating a current command value (Is) based on a current target value (It), wherein a ripple current value (Ir) is superimposed on said current target value (It); - comparing said current command value (Is) with a measured current value (Im) and generating a difference current value (Id); - generating a current control value (Ip) from said difference current value (Id) in a current regulator; and - generating a control signal for driving said solenoid valve from said current control value (Ip) in a control signal generator.
A polypeptide containing an EGFL domain of GGF2, for use with a Mekl/Erk pathway inhibitor in the treatment of a patient afflicted with a disease or disorder associated with reduced levels of myelination, wherein the Mek1/Erk pathway inhibitor is selected from the group consisting of Arctigenin, PD 98059, SB202190, SB203580, SP600125, U0126, tipifarnib (Zarnestra®), sorafenib, ISIS 5132, CI-1040, and PD 0325901.
An audio processing system comprising: an input for receiving an audio signal; a microphone for monitoring an acoustic signal, the acoustic signal including components of an interfering signal and the audio signal; a compressor circuit for compressing the audio signal at a first compression ratio when the audio signal is at a first level determined from the monitored acoustic signal and compressing the audio signal at a second compression ratio when the audio signal is above a second level determined from the monitored acoustic signal, the first level being lower than the second level and the first compression ratio being at least three times greater than the second compression ratio; characterised by a tracking circuit configured to produce an estimate (SNSR, 321) of a ratio of a level of the audio signal to a level of the acoustic signal; and wherein the compressor circuit is arranged to calculate the compression ratios from said estimate produced by the tracking circuit, thereby avoiding separating the components of the audio signal and the interfering signal. an input for receiving an audio signal; a microphone for monitoring an acoustic signal, the acoustic signal including components of an interfering signal and the audio signal; a compressor circuit for compressing the audio signal at a first compression ratio when the audio signal is at a first level determined from the monitored acoustic signal and compressing the audio signal at a second compression ratio when the audio signal is above a second level determined from the monitored acoustic signal, the first level being lower than the second level and the first compression ratio being at least three times greater than the second compression ratio;
Method for detecting an object crossing event at a predetermined first line (14; 16) in a scene captured by means of a motion video camera, the method comprising: determining from images of the scene captured by the motion video camera if an object image crosses the predetermined first line (14; 16), calculating a size (A o) value relating to the size of the object image crossing the predetermined first line (14; 16), setting a line distance (L d) value to a value calculated from the shortest distance between a contact point of the object with the predetermined first line (14;16) and a predetermined second line (16; 14), and generating an object crossing event signal if a relation between the calculated size value (A o) and the line distance (L d) is within a predetermined range. determining from images of the scene captured by the motion video camera if an object image crosses the predetermined first line (14; 16), calculating a size (A o) value relating to the size of the object image crossing the predetermined first line (14; 16), setting a line distance (L d) value to a value calculated from the shortest distance between a contact point of the object with the predetermined first line (14;16) and a predetermined second line (16; 14), and generating an object crossing event signal if a relation between the calculated size value (A o) and the line distance (L d) is within a predetermined range.
Fifth-wheel kingpin for a semitrailer of a tractor-trailer, extending substantially along a longitudinal axis, characterized by at least one wear detection means which is arranged perpendicular to the longitudinal axis in the fifth-wheel kingpin in such a way that wear to the fifth-wheel kingpin perpendicular to the longitudinal axis can be detected visually and/or by sensor. extending substantially along a longitudinal axis, characterized by at least one wear detection means which is arranged perpendicular to the longitudinal axis in the fifth-wheel kingpin in such a way that wear to the fifth-wheel kingpin perpendicular to the longitudinal axis can be detected visually and/or by sensor.
A hydraulic actuator with integral torque turn monitoring comprising: an outer hydraulic section comprising a housing assembly, wherein at least a portion of the outer hydraulic section is rotationally fixed; an inner hydraulic section comprising an inner mandrel, and a gripping apparatus comprising an outer cage concentrically disposed about the inner mandrel and movable relative to the inner mandrel for engaging and disengaging a plurality of rolling supports within a tubular, wherein the housing assembly is coupled to the outer cage and is axially movable relative to the inner mandrel; an upper fluid chamber disposed between the housing assembly and the inner mandrel, and a lower fluid chamber disposed between the housing assembly and the inner mandrel, wherein fluid pumped through a lower pressure port into the lower chamber moves the housing assembly in a first direction thereby causing the gripping apparatus to engage the tubular, and wherein fluid pumped through an upper pressure port into the upper fluid chamber moves the housing assembly in a second direction thereby causing the gripping apparatus to disengage the tubular, and wherein the inner hydraulic section is rotationally independent of the outer hydraulic section; characterised in that the inner hydraulic section comprises a strain gauge and a gyroscope, and wherein the strain gauge is disposed within a groove on the inner mandrel. an outer hydraulic section comprising a housing assembly, wherein at least a portion of the outer hydraulic section is rotationally fixed; an inner hydraulic section comprising an inner mandrel, and a gripping apparatus comprising an outer cage concentrically disposed about the inner mandrel and movable relative to the inner mandrel for engaging and disengaging a plurality of rolling supports within a tubular, wherein the housing assembly is coupled to the outer cage and is axially movable relative to the inner mandrel;
An aripiprazole intramuscular depot formulation comprising 300 mg or 400 mg of aripiprazole, for use in a method of dose initiation for an aripiprazole treatment to a patient in need thereof, wherein the patient has schizophrenia or bipolar I disorder, the method comprising: administering two, separate injections of the aripiprazole intramuscular depot formulation, wherein each injection comprises 300 mg or 400 mg of aripiprazole, to the patient at separate injection sites chosen from gluteal injection sites, deltoid injection sites, and a gluteal injection site and a deltoid injection site, and a single dose of oral aripiprazole, wherein the step of administering the two separate injections and the single oral dose occurs on a first day of the treatment. administering two, separate injections of the aripiprazole intramuscular depot formulation, wherein each injection comprises 300 mg or 400 mg of aripiprazole, to the patient at separate injection sites chosen from gluteal injection sites, deltoid injection sites, and a gluteal injection site and a deltoid injection site, and a single dose of oral aripiprazole, wherein the step of administering the two separate injections and the single oral dose occurs on a first day of the treatment.
A method of transmitting signals, the method comprising: transmitting a first multi-carrier on-off keyed signal comprising a plurality of on periods and a plurality of off periods; wherein transmitting the first signal in each on period comprises, for each subcarrier of a plurality of subcarriers (302, 304, 306, 308): transmitting, from a plurality of antennas, a frequency domain symbol associated with that subcarrier, wherein the frequency domain symbol comprises a symbol transmitted from the plurality of antennas using the subcarrier, characterized in that the frequency domain symbol transmitted from each antenna is phase shifted by a respective factor of a set of factors (500, 600, 800) associated with that subcarrier, wherein the set of factors associated with that subcarrier is different from the set of factors associated with at least one other subcarrier of the plurality of subcarriers. transmitting a first multi-carrier on-off keyed signal comprising a plurality of on periods and a plurality of off periods; wherein transmitting the first signal in each on period comprises, for each subcarrier of a plurality of subcarriers (302, 304, 306, 308): transmitting, from a plurality of antennas, a frequency domain symbol associated with that subcarrier, wherein the frequency domain symbol comprises a symbol transmitted from the plurality of antennas using the subcarrier, characterized in that the frequency domain symbol transmitted from each antenna is phase shifted by a respective factor of a set of factors (500, 600, 800) associated with that subcarrier, wherein the set of factors associated with that subcarrier is different from the set of factors associated with at least one other subcarrier of the plurality of subcarriers.
An air deflector drive means, comprising a drive case (1, 2) and a connecting rod, wherein one side of the drive case (1, 2) is provided with a protruding opening, the connecting rod is slidably disposed in the drive case (1, 2), the tip of the connecting rod protrudes from the protruding opening, wherein the drive case (1, 2) is provided therein with a limiting structure (A, B, C, D, 16, 17) by means of which the displacement of the connecting rod in the direction perpendicular to the moving direction of the connecting rod is limited, characterized in that the connecting rod is provided at its tail portion with a chute guide rail extending along the moving direction of the connecting rod; the limiting structure comprises two limiting members (C, D), one limiting member is arranged to pass through the chute guide rail and cooperate therewith, and the other limiting member is provided on a side of the connecting rod opposite to the former limiting member.
A method implemented in a network apparatus used in a wavelength division multiplexing, WDM, optical network, the method comprising: (a) finding K -shortest routes between each node pair ( s, d), where s, d ∈ V and | V | ≤ K, where V is a set of reconfigurable optical add-drop multiplexer, ROADM, nodes; (b) selecting a node pair ( s, d); (c) selecting a route k between nodes s and d out of the K -shortest routes; (d) finding a bit map of route k indicating whether a wavelength slot of the spectrum of route k is available or not by performing bit-wise logical AND operations on the bit vectors of all fibers along route k, wherein the state of each wavelength slot is represented by a binary variable; '1' indicating that the wavelength slot is available and '0' indicating that the wavelength slot is occupied and the spectrum state of a fiber is represented by a binary vector; (e) selecting a line rate l out of offered set L of line rates; (f) finding a probability α l s, d, k of provisioning a connection with line rate l on route k between nodes s, d; (g) determining a fragmentation factor, FF, according to the following formula: FF = 1 − 1 T ∑ ∀ s d 1 K ∑ k = 1 k = K ∑ l ∈ L Q l × α l s, d, k, where T is granularity at which a spectrum is slotted and Q 1 is the probability of requesting line rate 1. (a) finding K -shortest routes between each node pair ( s, d), where s, d ∈ V and | V | ≤ K, where V is a set of reconfigurable optical add-drop multiplexer, ROADM, nodes; (b) selecting a node pair ( s, d); (c) selecting a route k between nodes s and d out of the K -shortest routes; (d) finding a bit map of route k indicating whether a wavelength slot of the spectrum of route k is available or not by performing bit-wise logical AND operations on the bit vectors of all fibers along route k, wherein the state of each wavelength slot is represented by a binary variable; '1' indicating that the wavelength slot is available and '0' indicating that the wavelength slot is occupied and the spectrum state of a fiber is represented by a binary vector; (e) selecting a line rate l out of offered set L of line rates; (f) finding a probability α l s, d, k of provisioning a connection with line rate l on route k between nodes s, d; (g) determining a fragmentation factor, FF, according to the following formula: FF = 1 − 1 T ∑ ∀ s d 1 K ∑ k = 1 k = K ∑ l ∈ L Q l × α l s, d, k, where T is granularity at which a spectrum is slotted and Q 1 is the probability of requesting line rate 1.
An injection mold for producing a watermark insert having a high-resolution, multilevel injection molded relief, the injection mold including an injection molding cavity into which plastic is injectable to produce the watermark insert and which is furnished with a high-resolution multilevel watermark relief in the form of the inverted injection molded relief, and the injection mold, including the injection molding cavity and the high-resolution multilevel watermark relief, being formed through an additive manufacturing method as a layer sequence of a plurality of material layers that are firmly joined together.