This dataset supports a comparative analysis of the shielding effectiveness of gaskets using a tuned dipole antenna (IEEE Std. 299) and a log-periodic antenna (MIL DTL 83528G). It includes 3D full-wave simulations with the Finite-Difference-Time-Domain solver and experimental validation from 200 MHz to 1 GHz. Near-field sensors in simulations assessed shielding performance at various angles and locations, while the experimental setup focused on a 0° impinging angle. The data set shows a good correlation between simulations and experiments, indicating similar shielding effectiveness for both antennas. Despite IEEE Std. 299 recommending tuned dipole antennas, log-periodic antennas are also effective and practical.

This dataset supports the evaluation of board-level shielding effectiveness against electric and magnetic field sources from 10 MHz to 10 GHz. It includes FDTD simulation and measurement data using the SAE ARP 6248 stripline method, adapted for on-board sources. The dataset captures shielding effectiveness in near-field conditions, total radiated power metric, and wave impedance characteristics to distinguish between electric and magnetic source behavior. Strong agreement is observed between simulated and measured results, offering a validated resource for EMI analysis and shield design.

This dataset supports the near-field, low-frequency (LF) shielding effectiveness (SE) characterization of planar materials over the 9 kHz to 10 MHz frequency range. It includes measurement and simulation data generated using the low-frequency Finite-Element Method (FEM), focusing on key parameters such as loops' orientation (coplanar vs. parallel), loop-to-sample distance, sample size, and mounting configuration on a shielded enclosure wall.

This dataset supports the study on time-domain measurement of magnetic field shielding effectiveness below 30 MHz, providing data for evaluating waveform types, dynamic range, and comparison with frequency-domain and numerical simulation results.

A magnetic equivalent circuit induction motor model is combined with a lumped-element rotor dynamics model. Their combination is analysed for (i) rotor position, (ii) rotor acceleration, (iii) unbalanced magnetic pull, (iv) bearing acceleration, and (v) stator currents in the presence of the following mechanical faults: (i) no-fault case, (ii) a stator outer race misalignment, (iii) a rotor mass unbalance, (iv) a bearing outer race spall fault, (v) a bearing inner race spall fault, (vi) a bearing ball spall fault. The dataset is stored as the complete state and input time-series of both models. Additionally, the dq-transformed stator currents are provided.

This dataset supports a study investigating the practical reasons behind the differences in low-frequency magnetic shielding effectiveness (SE) when characterized using two parallel loops (NSA 94-106) versus two coplanar loops (IEEE Std. 299). It includes simulation data demonstrating how variations in loop radius affect the SE for the NSA 94-106 setup, while showing negligible effects for the IEEE Std. 299 configuration. The dataset also includes differences in wave impedance for both scenarios and the factors contributing to these variations, which ultimately impact the SE.

Datasets of time values, phase, ground, neutral and line voltages and current measurements of a modified 1.1 kW Cantoni 2SIEL 80-2B induction machine supplied using an Inverto IFC5.5-MP/460 frequency drive and measured using the Pqube 3 Travel power quality analyser. Faulty bearings and eccentric rotor positions are measured. The presence of broken rotor bars has been detected by motor inductance, resistance, and current analysis.