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, Cross-section of the two-conductor 0.75 mm 2 cable
, Cross-section of the two-conductor 2.5 mm 2 cable
, Parameters of the cable of section 0.75 mm 2
, Per-unit-length parameters of the cable of section 0.75 mm 2
, Parameters of the cable of section 2.5 mm 2
, Per-unit-length parameters of the cable of section 2.5 mm 2
38 section 2.5 mm2, with variations on the attenuation constant ?, p.41 ,
, Schematics for the resonance analysis
,
,
A possible load for the desired voltage amplication, p.47 ,
, The resonance frequency and maximum amplication position for the maximum amplication possible
Representation of an electrically short line, p.48 ,
,
, Input impedance of the line under study
, Input impedance of the open-ended line
, Multiconductor transmission line, variables denition
, + 1)-port equivalent circuit
, Multiconductor transmission line, variables denition
, Self impedance measurement setup
, Mutual-impedance measurement setup
, Three-conductor cable cross-section
, Schematic: resonance-based validation experiment
, Connection of the voltage probe along the line
, Frequency domain voltage simulation
Experimental validation : resonance-due voltage amplication, p.69 ,
, Schematic: input impedance validation experiment
, Theoretical input impedance calculation
Experimental validation : input impedance ,
, Cross-section of the three-conductor 2.5 mm 2 cable
,
Schematic for numerical resonance analysis ,
, , p.76
, Schematic for numerical resonance analysis
, Voltage amplication due to resonance on the three-conductor cable, in dierential and common mode, in function of the modal load
, Resonance frequencies of the three-conductor cable, in dierential and common mode, in function of the modal load
, Position of the maximal voltage amplication on the three-conductor cable, in dierential and common mode, in function of the modal load, p.81
,
92 4.2 Equivalent network to represent the cable inductance ,
, Schematic of the multiconductor transmission line
, Parameters of periodical trapezoidal source
, Schematic for the time domain validation experiment
, Connection of the voltage probe along the line
The RL series load chosen for the experimental validation, p.102 ,
, The RL series load connected to the two-conductor 2.5 mm 2 cable, p.102
Results of the validation experiment with series RL load, p.103 ,
Short line model of the system, valid for low frequencies, vol.104 ,
The voltage along the line on the frequency domain, p.105 ,
, Vatidation results for the RL series C parallel load
, Validation results for the RL series C parallel load, 4M Hz resonance105
, Cross-section of the three-conductor 2.5 mm 2 cable
, , p.1
,
,
, Current I 2 (0)
Simulation of V 1 ( c ) for three dierent cable parameter sets, vol.109 ,
110 5.1 Induction motor fed with long cable ,
, Measurement schematics to characterize the three-phase motor: input impedance measured between points a and b
, Motor Leroy Somer 1.5 kW measured impedances
, Equivalent circuit of one phase of the motor
, Cross-section of the 4x1, 5 mm 2 cables
,
Simulation model -Induction motor fed with long cable, p.120 ,
, Frequency response relative to V a , c = 70m
, Frequency response relative to V b , c = 70m
, , p.121
,
, , p.122
, , p.122
, Phase-to-phase voltages at x = c for c = 12 m
, Schematic of the DC link with voltage elevation: boost converter at the cable input and buck converter at the cable output
, Cross-section of the two-conductor 2.5 mm 2 cable
Transfer function of the currents at the line extremities, relative to I, p.125 ,
, , p.125
, Current sources modeling the DC-DC converters, without DC component, p.126
, Cross-section of the three-conductor 2.5 mm 2 cable
, Simulation model of the DC link with common mode
, Transfer functions relative to the sources in the system
, Schematic for the CM input impedance Z CM
, Sources I S and V k approximated as ideal trapezoidal sources, p.133
, , vol.134
,
, Three-conductor cable cross-section
,
, System equivalent circuit in common mode
Switching device equivalent circuit in dierential mode, p.139 ,
, Simulation of the CM voltage generated by the buck converter, p.139
V = ?60 dBV in red ,
, Frequencies of the maximum in common mode
, Position of the maximum in common mode
,
, Frequencies of the maximum in dierential mode
, Position of the maximum in dierential mode
Schematic of two-conductor system with passive load ,
, Two-conductor cables loss related parameters
ABCD parameters of the Minicircuits T6-4T balun ,
Cross-section of the 4x1.5 mm 2 cables, with labeled conductors, vol.21 ,
Measurement schematics to characterize the three-phase motor: input impedance measured between points a and b ,
, Motor input impedance measurement setup
Motor input impedance measurement setup: compensation SHORT ,
, Motor input impedance measurement setup: connections for measurements
, , p.25
Schematic of the three-phase motor as a 4 input device ,
Comparison of the two motor experimental characterizations, p.28 ,
21 2.2 Maximum dierence between the impedance measured using congurations A and B, relative to the measurement in cong ,
, Maximum dierence between the impedance measured in congurations A and B, relative to the impedance measured in cong. A; impedance analyzer powered through a LISN
, Frequency-Domain Model Resonance Frequency and Amplitude Relative Errors, p.30
, at the resonance frequencies of the short-circuited line (cf. Fig. 2.33)
, at the resonance frequencies of the open-ended line (cf. Fig. 2.33)
Range of values used in the numerical analysis of the resonance ,
, Frequency-Domain Model Resonance Frequency and Amplitude Relative Errors, p.68
Range of values used in the numerical analysis of the resonance, p.79 ,
, Resonance characteristics -modal base
, Characteristics of the predicted resonance
, Characteristics of the predicted resonances
, Fixed cable parameters for resonance analysis
, Parameters of two-level voltage inverter
, Time domain simulation parameters
Parameters of the dierential mode DC link model (cf. Fig. 5.17), p.124 ,
, Parameters of the model (Fig. 5.24)
, Parameters of the system model
, Filter designed with the classic approach given in [39], to meet the RTCA DO-160G standard
, Parameters of the resonance surface response calculation
, Filter designed with resonance surface response
Hyperbolic function denitions and identities ,
Conversion between the two-port devices models ,
Input impedance measured for motor characterization, p.27 ,