Solving numerically a non‐Born‐Oppenheimer time‐dependent Schrödinger equation to study the dynamics of H2 subjected to strong field six‐cycle laser pulses (I=4×1014 W/cm2, λ=800 nm) leads to the newly ultrafast electron imaging in the dissociative‐ionization of H2+. This includes the electron distribution in H2+ oscillates symmetrically with laser cycle with ϑ+π periodicity where the distribution concentrates between two protons for about 8 fs, being trapped in a Coulomb potential well. Nonetheless, the most important finding reveals that the electron symmetrical distribution begins to break up in the field‐free region after 24 fs when the H2+ internuclear distance stretches larger than 9 a.u. It is a result of the distortion of Coulomb potential where the ejected electron preferentially localizes in one of the double‐well potential separated by the inner Coulomb potential barrier, leading to the new images of charge resonance enhanced ionization. Controlling laser carrier‐envelope phase ϑ enables one to quantify such phenomena with the highest total asymmetries Aetot of 0.75 and −0.75 occur at 10° and 190°, respectively, associated with the electron preferential directionality being ionized to the right and the left paths along the H2+ molecular axis.