All Tables

Table 1: Event overview and data coverage. Event gives the event label and date; NOAA No. the active region number; flare loc. the coordinates of the flare; flare imp. the optical and soft X-ray importance of the flare; SXR beg.-max. the time of begin and maximum of the SXR flare; $t_{0~{\rm est}}$ the estimated starting time of the disturbance; 1st Moreton the time of the first Moreton wavefront; and n the number of identified wavefronts in the various spectral bands ( Nob. refers to the Nobeyama radioheliograph). "-" means that no wave features could be detected, and a blank space indicates that no or insufficient data were available.
Table 2: Imaging instruments. Spatial resolution is given in arcseconds per pixel, temporal cadence in minutes. Note that the Hida and NoRH data are available at much higher cadences, and that the cadence for SXT applies to each specific combination of filters and exposure times.
Table 3: H $\alpha$ Moreton wave kinematics derived with the "visual" method. v₁ and v_l are the measured first and last velocities, $v_{0~{\rm est}}$ the velocity obtained from the polynomial fit of r(t) at the estimated starting time, $\bar v$ the mean velocity derived from a linear fit, $r_{\rm min}$ and $r_{\rm max}$ the minimum and maximum distances of the wavefronts, $\bar a$ the average deceleration derived from the polynomial fits, and $\delta$ is the exponent of the power-law fits. The last four rows give the mean values and standard deviations $\sigma$ of the parameters obtained by the "visual" and the "profile method", respectively. Values in brackets are inaccurate and are not used for deriving the mean values. Decelerations are given in m s^-2, velocities in km s^-1, and distances in Mm (10³ km).
Table 4: EIT and combined H $\alpha$ /EIT wave kinematics. $\bar v_{\rm EIT}$ is the mean EIT velocity, $r_{\rm EIT}^{\rm min}$ and $r_{\rm EIT}^{\rm max}$ the minimum and maximum EIT distance, $\bar v_{cb}$ the mean combined velocity, $\bar a_{\rm vb}$ the mean combined deceleration, and $\delta _{cb}$ the exponent of the power-law fits of the combined data.