Pattern is the same as fermions travels on the pathways...Hexagonal... It's always hexagonal...

模式与费米子在轨道上的移动完全一样 六边的 从来都是六边的。

Ask me the difference between a boson and a fermion.

不信你问我玻色子跟费米子的差异。

What is the only fermion that may not have an antiparticle?

唯一一个可能没有反粒子的费密子是什么？

Electrons are fermions and have to obey the Pauli Exclusion Principle.

电子是费米子，必须遵守泡利不相容原理。

So all particles come in one of two quantum categories, fermions and bosons.

所以所有粒子都属于两个量子类别之一，即费米子和玻色子。

Crucially, it would also interact at different strengths with the different generations of fermions.

至关重要的是，它还会以不同的强度与不同代的费米子相互作用。

So fermions, even when things get cold, like to keep their distance from each other.

所以费米子，即使天气变冷，也喜欢彼此保持距离。

And if fermions started acting like bosons, the Universe would be a very weird place.

如果费米子开始像玻色子一样行动，宇宙将是一个非常奇怪的地方。

Un peu d'histoire The Standard Model describes two broad classes of particles—fermions and bosons.

Un peu d'histoire 标准模型描述了两大类粒子——费米子和玻色子。

Fermions are the stuff of matter.

费米子是物质。

Fermions divide into leptons, quarks and their antimatter equivalents, which are identical to normal matter but with opposite electrical charges.

费米子分为轻子、夸克和它们的反物质等价物，它们与普通物质相同，但电荷相反。

Two of cern's detectors—atlas and cms—have recently announced hints of excesses in the production of this and other heavy fermions, notably bottom quarks and tau leptons.

cern 的两个探测器——atlas 和 cms——最近宣布了这种和其他重费米子产生过量的迹象，特别是底夸克和 tau 轻子。

Susy, as this theory is known for short, got rid of the arbitrary assumptions by predicting a set of heavier (and as-yet-unseen) particles, a " superpartner" for each known fermion and boson.

Susy，这个理论的简称，通过预测一组更重的（和尚未见过的）粒子， 即每个已知费米子和玻色子的“超级伙伴” ，摆脱了武断的假设。