Of course, if a shield were truly realized this way, the so-called shield light screen definitely would not be a single layer, but a region with a certain thickness.
This report also provided a method of implementation: use a Superforce Field to compress it, reducing the uncertainty in electrons' positions while increasing the uncertainty in their momentum, thereby producing a shielding effect.
According to the predictions in this shield research report, if this theory proved feasible, a shield built this way would possess a force comparable to that which resisted a White Dwarf Star's continued collapse. Only by applying, in an instant, a force exceeding that of a collapsing White Dwarf Star could it be broken.
This force was easy to calculate. It was equal to the pressure generated at the core of a White Dwarf Star with 1.44 times the Sun's mass under the effects of Gravity.
Only a force exceeding that pressure in an instant could blow the shield apart. Otherwise, one could only keep striking it until the shield generator overloaded.
The theory was beautiful; reality was harsh.
According to the description of this theory, even if a shield could be realized this way, the resulting shield would be a dense material barrier like the core of a White Dwarf Star. It was vastly different from the Real Shield Humanity had once witnessed. That shield only lit up when attacked and blocked things in only one direction.
Even if a shield composed of dense electrons were feasible, it would definitely block attacks fired from inside the warship as well.
Thus, after thoroughly analyzing the report, Liu Miyan concluded that it was unworkable. Subsequent experiments proved his view correct.
Likewise, shields conceived around an Electron Cloud faced an unsolvable problem: Antimatter attacks.
According to Humanity's understanding of the