奇异粒子

Each particle in the multiplet has the same strangeness.

在多重态内的每个粒子都有同样的奇异数。

This deficit indicates that there may be "baryonic" dark matter (although not enough to make the universe recollapse), as well as the more exotic "particle" dark matter.

这缺额显示可能存在&重子&暗物质(虽然不足于使得宇宙重新坍缩)以及更奇异的&粒子&暗物质。

Similarly, an experiment carried out in Long Island a few years ago, which was intended to produce a form of matter known as strange quarks, caused a few imaginative worrywarts to fear that the entire planet would be converted into subatomic particles called strangelets.

同样地，几年前在长岛进行了一次实验，旨在制造一些名为&奇夸克&的物质形态。这次实验也引起了一些杞人忧天的恐惧，害怕实验会将整个地球变成一种名为&奇异滴&的亚原子粒子。

Only quantum mechanics can provide the answer: the particle's position will have an uncertainty that follows the Heisenberg Uncertainty Principle, such that it might not really reach the singularity and thus escape the possible collapse to infinite density.

只有量子力学可以提供答案：粒子的位置将具有不确定性，它们遵守海森堡测不准原理，因而它可能不是真的达到奇异而因此逃逸了可能的坍塌达到无限密度。

The split between the two groups can hardly be papered over.

这两个团体间的分歧难以掩饰。

This approach not only encourages a greater number of responses, but minimizes the likelihood of stale groupthink.

这种做法不仅鼓励了更多的反应，而且减少跟风的可能性。