mhurhangee/ep-ind-claims huggingface dataset:
Aircraft empennage, comprising: - a rear fuselage section comprising a skin (1.1) and a frame, - a trimmable horizontal tail plane comprising a first and a second lateral torsion box (21, 22), the first and the second lateral torsion box (21, 22) comprising a front spar (211, 221) and a rear spar (212, 222), - a front fitting and a rear fitting connected to the trimmable horizontal tail plane and to the fuselage section, - an actuator configured to act on the front fitting for a rotation of the trimmable horizontal tail plane around a hinge axis passing through the rear fitting and orthogonal to a vertical longitudinal plane of symmetry of the fuselage section, characterized in that - the front fitting comprises a first and a second front fitting units (41, 42), the first front fitting unit being joined to the front spar of the first lateral torsion box and the second front fitting unit being joined to the front spar of the second lateral torsion box, the first front fitting unit and the second front fitting unit comprise an elongated support bar located in a plane perpendicular to the front spar (211, 221), the support bars pointing towards the lateral sides of the rear fuselage section, and - the actuator comprises a first and a second actuator units (31, 32), the first actuator unit being configured to act on the first front fitting unit and the second actuator unit being configured to act on the second front fitting unit, and - the support bars being attached by one end to the front spars (211, 221) and at the other end to the actuator units (31, 32). - a rear fuselage section comprising a skin (1.1) and a frame, - a trimmable horizontal tail plane comprising a first and a second lateral torsion box (21, 22), the first and the second lateral torsion box (21, 22) comprising a front spar (211, 221) and a rear spar (212, 222), - a front fitting and a rear fitting connected to the trimmable horizontal tail plane and to the fuselage section, - an actuator configured to act on the front fitting for a rotation of the trimmable horizontal tail plane around a hinge axis passing through the rear fitting and orthogonal to a vertical longitudinal plane of symmetry of the fuselage section, - the front fitting comprises a first and a second front fitting units (41, 42), the first front fitting unit being joined to the front spar of the first lateral torsion box and the second front fitting unit being joined to the front spar of the second lateral torsion box, the first front fitting unit and the second front fitting unit comprise an elongated support bar located in a plane perpendicular to the front spar (211, 221), the support bars pointing towards the lateral sides of the rear fuselage section, and - the actuator comprises a first and a second actuator units (31, 32), the first actuator unit being configured to act on the first front fitting unit and the second actuator unit being configured to act on the second front fitting unit, and - the support bars being attached by one end to the front spars (211, 221) and at the other end to the actuator units (31, 32).
A method of predicting the effect of a concentration of a sensitizer on cell viability in a production bioreactor, the method comprising: (a) determining cell viability under a plurality of test conditions in a test culture vessel, wherein the plurality of test conditions are defined by a set of parameters, wherein the plurality of testing conditions are selected based on full factorial screening and/or inscribed center composite design; and (b) based on the cell viability in the test culture vessel under the plurality of conditions, predicting the effect of a concentration of a sensitizer on cell viability in a production bioreactor. (a) determining cell viability under a plurality of test conditions in a test culture vessel, wherein the plurality of test conditions are defined by a set of parameters, wherein the plurality of testing conditions are selected based on full factorial screening and/or inscribed center composite design; and (b) based on the cell viability in the test culture vessel under the plurality of conditions, predicting the effect of a concentration of a sensitizer on cell viability in a production bioreactor.
A multichannel-based signal transmission apparatus, comprising: a processing unit, configured to: obtain N groups of lower-order modulation symbols; where each group of lower-order modulation symbols comprises M lower-order modulation symbols, M being a positive integer greater than 1; obtain N groups of higher-order modulation symbols, wherein an an i th high-order modulation symbol in an s th group of higher-order modulation symbols in the N groups of higher-order modulation symbols is a product of a row vector of an s th row in a matrix Q and an i th column vector, wherein s=1, 2,..., N; wherein the i th column vector comprising an i th lower-order modulation symbol in each of the N groups of lower-order modulation symbols; wherein the value of N is 2, and the lower order modulation is a binary phase shift keying BPSK, and the higher-order modulation is a quadrature phase shift keying QPSK, wherein the matrix Q is Q = 1 2 1 j 1 − j; determine N to-be-sent signals based on the N groups of higher-order modulation symbols; and a transmission unit, configured to send a k th to-be-sent signal in the N to-be-sent signals by using a k th channel in N channels, wherein k=1, 2,..., N. obtain N groups of lower-order modulation symbols; where each group of lower-order modulation symbols comprises M lower-order modulation symbols, M being a positive integer greater than 1; obtain N groups of higher-order modulation symbols, wherein an an i th high-order modulation symbol in an s th group of higher-order modulation symbols in the N groups of higher-order modulation symbols is a product of a row vector of an s th row in a matrix Q and an i th column vector, wherein s=1, 2,..., N; wherein the i th column vector comprising an i th lower-order modulation symbol in each of the N groups of lower-order modulation symbols; wherein the value of N is 2, and the lower order modulation is a binary phase shift keying BPSK, and the higher-order modulation is a quadrature phase shift keying QPSK, wherein the matrix Q is Q = 1 2 1 j 1 − j; determine N to-be-sent signals based on the N groups of higher-order modulation symbols; and a transmission unit, configured to send a k th to-be-sent signal in the N to-be-sent signals by using a k th channel in N channels, wherein k=1, 2,..., N.
Crystalline form of 2-{3-[2-(1-{[3,5-bis(difluoromethyl)-1H-pyrazol-1-yl]acetyl}piperidin-4-yl)-1,3-thiazol-4-yl]-4,5-dihydro-1,2-oxazol-5-yl}-3-chlorophenyl methanesulphonate, characterized in that its X-ray powder diffractogram at 25°C has at least 3 of the following 2Θ (2-theta) values: 2Θ = 7.75° ± 0.2 2Θ = 8.89° ± 0.2 2Θ = 10.91° ± 0.2 2Θ = 11.45° ± 0.2 2Θ = 12.72° ± 0.2 2Θ = 13.46° ± 0.2 2Θ = 14.54° ± 0.2 2Θ = 14.75° ± 0.2 2Θ = 15.53° ± 0.2 2Θ = 15.90° ± 0.2 2Θ = 16.33° ± 0.2 2Θ = 16.65° ± 0.2 2Θ = 17.49° ± 0.2 2Θ = 17.71° ± 0.2 2Θ = 17.89° ± 0.2 2Θ = 18.27° ± 0.2 2Θ = 18.47° ± 0.2 2Θ = 18.86° ± 0.2 2Θ = 18.99° ± 0.2 2Θ = 19.18° ± 0.2 2Θ = 19.63° ± 0.2 2Θ = 20.03° ± 0.2 2Θ = 20.22° ± 0.2 2Θ = 20.53° ± 0.2 2Θ = 21.11° ± 0.2 2Θ = 21.32° ± 0.2 2Θ = 21.50° ± 0.2 2Θ = 21.84° ± 0.2 2Θ = 22.01° ± 0.2 2Θ = 22.28° ± 0.2 2Θ = 22.61° ± 0.2 2Θ = 23.05° ± 0.2 2Θ = 23.39° ± 0.2 2Θ = 24.02° ± 0.2 2Θ = 24.22° ± 0.2 2Θ = 24.62° ± 0.2 2Θ = 24.97° ± 0.2 2Θ = 25.59° ± 0.2 2Θ = 25.99° ± 0.2 2Θ = 26.31° ± 0.2 2Θ = 26.67° ± 0.2 2Θ = 26.85° ± 0.2 2Θ = 27.07° ± 0.2 2Θ = 27.43° ± 0.2 2Θ = 28.21° ± 0.2 2Θ = 28.34° ± 0.2 2Θ = 28.78° ± 0.2 2Θ = 29.59° ± 0.2 2Θ = 30.19° ± 0.2 2Θ = 30.37° ± 0.2 2Θ = 30.96° ± 0.2 2Θ = 31.29° ± 0.2 2Θ = 31.70° ± 0.2 2Θ = 31.81° ± 0.2 2Θ = 32.16° ± 0.2 2Θ = 33.02° ± 0.2 2Θ = 33.39° ± 0.2 2Θ = 33.64° ± 0.2 2Θ = 33.79° ± 0.2 2Θ = 33.80° ± 0.2 2Θ = 34.20° ± 0.2 2Θ = 34.77° ± 0.2 2Θ = 34.89° ± 0.2 2Θ = 35.66° ± 0.2 2Θ = 35.95° ± 0.2 2Θ = 36.67° ± 0.2 2Θ = 37.03° ± 0.2 2Θ = 37.38° ± 0.2 2Θ = 37.51° ± 0.2 2Θ = 37.87° ± 0.2
A cassette for a tape printing apparatus, the cassette comprising at least one locking portion for engaging with a cooperating locking element of the tape printing apparatus when said cassette is correctly inserted in said tape printing apparatus, said locking portion comprising a conductive area, wherein said conductive area comprises a thin layer applied to or set into the surface of the cassette.
A communication method comprising: receiving a signal that was generated in part using frequency domain pulse shaping of J frequency domain samples prior to transmission with a transmit pulse shape having J non-zero coefficients; performing an N-DFT to produce N frequency domain samples, J samples of the N samples relating to the J frequency domain samples that were pulse shaped with the transmit pulse shape; channel equalizing L of the J samples by treating an effect of the transmit pulse shape to be part of the channel; Nyquist pulse shaping the channel equalized L samples by multiplying each of the channel equalized L samples with a respective one of L non-zero coefficients, wherein the L non-zero coefficients represent a frequency response of a Nyquist pulse shape, to produce L pulse shaped outputs; padding the L pulse shaped outputs with zeros to produce 2K frequency domain samples, where the L pulse shaped outputs are centered within the 2K frequency domain samples; performing a 2K-IDFT on the 2K frequency domain samples; and processing the 2K outputs to produce K complex symbols; wherein: K is a number of QAM symbols transmitted and received using the signal; K ≤ J ≤ 2 K for odd K, and K + 1 ≤ J ≤ 2 K for even K; J ≥ L ≥ K + 1 for even K and J ≥ L ≥ K for odd K; L is odd; N ≥ K is the IDFT size. receiving a signal that was generated in part using frequency domain pulse shaping of J frequency domain samples prior to transmission with a transmit pulse shape having J non-zero coefficients; performing an N-DFT to produce N frequency domain samples, J samples of the N samples relating to the J frequency domain samples that were pulse shaped with the transmit pulse shape; channel equalizing L of the J samples by treating an effect of the transmit pulse shape to be part of the channel; Nyquist pulse shaping the channel equalized L samples by multiplying each of the channel equalized L samples with a respective one of L non-zero coefficients, wherein the L non-zero coefficients represent a frequency response of a Nyquist pulse shape, to produce L pulse shaped outputs; padding the L pulse shaped outputs with zeros to produce 2K frequency domain samples, where the L pulse shaped outputs are centered within the 2K frequency domain samples; performing a 2K-IDFT on the 2K frequency domain samples; and processing the 2K outputs to produce K complex symbols; K is a number of QAM symbols transmitted and received using the signal; K ≤ J ≤ 2 K for odd K, and K + 1 ≤ J ≤ 2 K for even K; J ≥ L ≥ K + 1 for even K and J ≥ L ≥ K for odd K; L is odd; N ≥ K is the IDFT size.
Cutter for severing a contact from a contact carrier strip, having: a) a first and a second side (11, 12); b) a contact carrier strip guide which extends along the first side and in which a contact carrier strip can be guided, wherein the first side can form a separating plane between the contact and the contact carrier strip; c) a conduit in which a line which has at least one first sub-region and one second sub-region is able to be disposed, wherein the conduit extends between the first and the second side (11, 12); d) a stop which is aligned transversely to the conduit and has at least one opening, wherein the first sub-region of the line can extend through the opening, and the second sub-region of the line can rest on the stop; and the cutter is characterized in that e) the stop forms a sub-region of the first side in such a way that a plane between the first and the second sub-region (21, 22) of the line can lie in the separating plane between the contact and the contact carrier strip. a) a first and a second side (11, 12); b) a contact carrier strip guide which extends along the first side and in which a contact carrier strip can be guided, wherein the first side can form a separating plane between the contact and the contact carrier strip; c) a conduit in which a line which has at least one first sub-region and one second sub-region is able to be disposed, wherein the conduit extends between the first and the second side (11, 12); d) a stop which is aligned transversely to the conduit and has at least one opening, wherein the first sub-region of the line can extend through the opening, and the second sub-region of the line can rest on the stop; and the cutter is characterized in that e) the stop forms a sub-region of the first side in such a way that a plane between the first and the second sub-region (21, 22) of the line can lie in the separating plane between the contact and the contact carrier strip.
Interface circuit for a capacitive accelerometer sensor for measuring an acceleration value sensed by the sensor, the interface circuit comprising: - an amplifier comprising a first input node connected to the sensor, a second input node connected to a first voltage source, and an output node; - a first amplifier feedback circuit comprising a first switch between the first input node and the output node; - a second amplifier feedback circuit between the first input node and the output node, and comprising a first programmable capacitor (Cf) and a second switch in series with the first programmable capacitor (Cf), and a third switch connected to a first circuit node between the first programmable capacitor (Cf) and the second switch, and to a first ground node; - a second programmable capacitor (Cref) connected to the first input node and to a second circuit node for which an acceleration range selection is implemented by the first and second programmable capacitors (Cf, Cref); - a set of capacitors (Cdac) in series with the second programmable capacitor (Cref), and connected to the second circuit node and through a set of switches (S6, S7) to a set of voltage sources (32, 33); - a third programmable capacitor (Cp) connected between a second ground node and the second circuit node for which a gain trimming of the interface circuit is implemented by adjusting capacitance value of the third programmable capacitor (Cp); and - a fourth switch in parallel with the third programmable capacitor (Cp) and connected between the second circuit node and the second ground node. - an amplifier comprising a first input node connected to the sensor, a second input node connected to a first voltage source, and an output node; - a first amplifier feedback circuit comprising a first switch between the first input node and the output node; - a second amplifier feedback circuit between the first input node and the output node, and comprising a first programmable capacitor (Cf) and a second switch in series with the first programmable capacitor (Cf), and a third switch connected to a first circuit node between the first programmable capacitor (Cf) and the second switch, and to a first ground node; - a second programmable capacitor (Cref) connected to the first input node and to a second circuit node for which an acceleration range selection is implemented by the first and second programmable capacitors (Cf, Cref); - a set of capacitors (Cdac) in series with the second programmable capacitor (Cref), and connected to the second circuit node and through a set of switches (S6, S7) to a set of voltage sources (32, 33); - a third programmable capacitor (Cp) connected between a second ground node and the second circuit node for which a gain trimming of the interface circuit is implemented by adjusting capacitance value of the third programmable capacitor (Cp); and - a fourth switch in parallel with the third programmable capacitor (Cp) and connected between the second circuit node and the second ground node.
A vehicle having a multiple drive axle assembly, comprising: a forward axle assembly comprising a forward interaxle differential, a forward interaxle differential input shaft, a first forward interaxle differential output shaft, and a second forward interaxle differential output shaft, the forward interaxle differential distributing power from the forward interaxle differential input shaft between the first and the second forward interaxle differential output shafts; an intermediate drive shaft connected to the second forward interaxle differential output shaft; a rear axle assembly comprising a rear differential and a rear differential input shaft; characterized by a rear clutch arrangement between the intermediate drive shaft and the rear differential input shaft, the rear clutch arrangement being movable between a first position in which the rear clutch arrangement rotationally locks the intermediate drive shaft and the rear differential input shaft and a second position in which the intermediate drive shaft and the rear differential input shaft are rotationally disconnected; whereby the vehicle further comprises means for raising the rear axle assembly above a normal operating level relative to a frame of the vehicle and for lowering the rear axle assembly to the normal operating level relative to the frame. a forward axle assembly comprising a forward interaxle differential, a forward interaxle differential input shaft, a first forward interaxle differential output shaft, and a second forward interaxle differential output shaft, the forward interaxle differential distributing power from the forward interaxle differential input shaft between the first and the second forward interaxle differential output shafts; an intermediate drive shaft connected to the second forward interaxle differential output shaft; a rear axle assembly comprising a rear differential and a rear differential input shaft; characterized by a rear clutch arrangement between the intermediate drive shaft and the rear differential input shaft, the rear clutch arrangement being movable between a first position in which the rear clutch arrangement rotationally locks the intermediate drive shaft and the rear differential input shaft and a second position in which the intermediate drive shaft and the rear differential input shaft are rotationally disconnected; whereby the vehicle further comprises means for raising the rear axle assembly above a normal operating level relative to a frame of the vehicle and for lowering the rear axle assembly to the normal operating level relative to the frame.
A method of providing training feedback to an individual using a heart rate sensor and a display module supported by the individual during a physical activity, the method comprising the steps of: (a) determining a maximum heart rate value for the individual; (b) defining a heart rate zone as a range of heart rate values that correspond to a range of percentages of the maximum heart rate value; (c) associating a color with the heart rate zone; (d) wirelessly transmitting heart rate data from the heart rate sensor to the display module during the physical activity; and (e) visually displaying the color associated with the heart rate zone to the individual on the display module during the physical activity in response to the heart rate data, characterized in that the method further comprises the steps of (f) transmitting heart rate data from the display module to a remote computer after the physical activity; (g) determining whether the heart rate zones need to be adjusted; and (h) transmitting the adjusted heart rate zones back to the display module if the heart rate zones need to be adjusted. (a) determining a maximum heart rate value for the individual; (b) defining a heart rate zone as a range of heart rate values that correspond to a range of percentages of the maximum heart rate value; (c) associating a color with the heart rate zone; (d) wirelessly transmitting heart rate data from the heart rate sensor to the display module during the physical activity; and (e) visually displaying the color associated with the heart rate zone to the individual on the display module during the physical activity in response to the heart rate data, (f) transmitting heart rate data from the display module to a remote computer after the physical activity; (g) determining whether the heart rate zones need to be adjusted; and (h) transmitting the adjusted heart rate zones back to the display module if the heart rate zones need to be adjusted.
A terminal device configured to communicate with a base station device, the terminal device comprising: a control information detection unit configured to receive either a set of first radio resource control, RRC, information and second RRC information or the second RRC information, through a higher-layer signalling, and receive an uplink, UL, grant on a physical downlink control channel, PDCCH, and a transmission processing unit configured to perform either a first uplink data transmission or a second uplink data transmission, wherein the first RRC information includes first radio resource information, modulation and coding scheme, MCS, information, and a precoding and number of layers, the second RRC information includes semi-persistent scheduling, SPS, periodicity, the UL grant includes second radio resource information, in a case where the control information detection unit unit receives the set of the first RRC information and the second RRC information, the transmission processing unit is configured to perform the first uplink data transmission by using the set of the first RRC information and the second RRC information, and in a case where the control information detection unit receives the second RRC information, the transmission processing unit is configured to perform the second uplink data transmission by using the second RRC information and the UL grant. a control information detection unit configured to receive either a set of first radio resource control, RRC, information and second RRC information or the second RRC information, through a higher-layer signalling, and receive an uplink, UL, grant on a physical downlink control channel, PDCCH, and a transmission processing unit configured to perform either a first uplink data transmission or a second uplink data transmission, wherein the first RRC information includes first radio resource information, modulation and coding scheme, MCS, information, and a precoding and number of layers, the second RRC information includes semi-persistent scheduling, SPS, periodicity, the UL grant includes second radio resource information, in a case where the control information detection unit unit receives the set of the first RRC information and the second RRC information, the transmission processing unit is configured to perform the first uplink data transmission by using the set of the first RRC information and the second RRC information, and in a case where the control information detection unit receives the second RRC information, the transmission processing unit is configured to perform the second uplink data transmission by using the second RRC information and the UL grant.
A construction platform for constructing a workpiece in layers or continuously in a stereolithography process, comprising: a rear exposure device for exposing a layer (103-n) from a rear side; a photosensor for detecting a light intensity of a light from a front exposure device through the layer (103-n) and/or a material and/or via a deflection mirror; and comprising a printer-independent control device for activating the rear exposure device when the detected light intensity of the front exposure device is above a predetermined threshold. a rear exposure device for exposing a layer (103-n) from a rear side; a photosensor for detecting a light intensity of a light from a front exposure device through the layer (103-n) and/or a material and/or via a deflection mirror; and comprising a printer-independent control device for activating the rear exposure device when the detected light intensity of the front exposure device is above a predetermined threshold.