Why do honeybees love hexagons Zack Patterson and Andy Peterson

Honeybees are fascinating creatures
for a number of reasons:

their incredible work ethic,

the sugary sweet syrup they produce

and their intricate social structure.

But another reason is
that honeybees are, in fact,

excellent mathematicians.

Scientists claim the tiny insects
can calculate angles,

and can even comprehend
the roundness of the Earth.

But there’s particular
mathematical bee genius

behind the most important aspect
of honeybee life: the hive.

Just like humans, bees need food
and shelter to stay alive.

The hive is not only the bees' home,

but doubles as a place
to store their honey.

Since it’s so central to survival,

honeybees have to perfect
the hive’s architectural design.

If you examine any piece of honeycomb,

you’ll see that it’s constructed from

tightly packed hexagonal,
or six-sided, cells.

Of all the possible designs,

why do honeybees choose this one?

To understand, you need
to think like a bee.

Bees need a secure place
for their entire colony to live.

Similarly, there needs to be a place

where their nectar can
be stored and ripened suitably

until it turns into honey.

That means there’s a need
for some serious space efficiency.

A good solution is to build
little storage units, or cells,

just big enough for a bee to fit into,

which can also double as the containers
in which nectar is stored:

The bees' very own honey jars.

The next thing, is to decide what
the little cells should be made out of.

Bees don’t have beaks
or arms to pick up things,

but they are capable of producing wax.

The thing is, producing it
is a lot of hard work.

Bees have to consume 8 ounces of honey

to produce just 1 ounce of wax.

So they don’t want to waste it.

So, they need a design
that allows them to store

the largest possible amount of honey

using the least amount of wax.

What shape does that?

Imagining for a minute
that all bees had to

attend architecture academy
and go to math class.

Let’s say they asked
their geometry teacher,

“What shape would give us
the most space to store our honey,

but require the least amount of wax?”

And then geometry teacher replied,

“The shape that you’re seeking
is the circle.”

Leaving the bees to return
to their trial construction site

and begin building their honeycomb
using circular cells.

After a while, some of them
might have noticed

a problem with their design:

small gaps between the cells.

“We can’t even fit in there!
That’s wasted space!”

they might have thought.

So, ignoring the geometry lesson,

and taking matters into their own hands,

the bees went back to the drawing board

to rethink their beehive design.

One suggested triangles,

“We can use triangles. Look!
They fit together perfectly.”

Another bee suggested squares.

Finally, a third bee piped up and said,

“Pentagons don’t seem to work,
but hexagons do!

We want the one that will use
the least amount of wax

and be able to store
the most amount of honey.

Yes, I think that’s the hexagon.”

“Why?”

“It looks more like the circle
than the others.”

“But how do we know for sure?”

To find out, the industrious
insect architects

calculated the areas of the triangle,
the square and the hexagon

and found that the hexagon was, in fact,

the shape that gave them
the most storage space.

They agreed on an ideal size
and returned to work.

The space efficient comb that
is a bee’s trademark today,

is probably the result
of this trial and error,

but over long periods
of evolutionary history.

However, it paid off.

Peek into any hive –

with your protective goggles
and netting on, of course –

and you’ll see the end result:
a beautiful compact honeycomb

that any architect would have
be proud to design.

蜜蜂之所以令人着迷
的原因有很多:

它们令人难以置信的职业道德、

它们生产的含糖甜糖浆

以及它们错综复杂的社会结构。

但另一个原因
是蜜蜂实际上是

优秀的数学家。

科学家声称这些微小的昆虫
可以计算角度,

甚至可以理解
地球的圆度。

但是蜜蜂生命最重要的方面背后有一个特殊的
数学天才

:蜂巢。

就像人类一样,蜜蜂需要食物
和住所才能生存。

蜂巢不仅是蜜蜂的家,

而且也是
储存蜂蜜的地方。

由于它对生存至关重要,

蜜蜂必须
完善蜂巢的建筑设计。

如果你检查任何一块蜂窝,

你会发现它是由

紧密排列的六边形
或六边形单元构成的。

在所有可能的设计中,

为什么蜜蜂会选择这个?

要理解,你
需要像蜜蜂一样思考。

蜜蜂需要一个安全的地方
让它们的整个蜂群生活。

同样,需要有一个

地方可以储存它们的
花蜜并使其成熟,

直到它变成蜂蜜。

这意味着
需要一些严格的空间效率。

一个好的解决方案是建造
小的存储单元或单元格,

大小刚好可以容纳一只蜜蜂,

它也可以
兼作储存花蜜的容器

:蜜蜂自己的蜂蜜罐。

接下来是决定
小细胞应该由什么制成。

蜜蜂没有喙
或手臂来捡东西,

但它们能够产生蜡。

问题是,制作它
是一项艰巨的工作。

蜜蜂必须消耗 8 盎司蜂蜜

才能生产 1 盎司蜡。

所以他们不想浪费它。

因此,他们需要一种设计
,使他们能够使用最少的蜡来

储存尽可能多的蜂蜜

那是什么形状?

想象一下
,所有的蜜蜂都必须

上建筑学院
并上数学课。

假设他们问
他们的几何老师,

“什么形状会给
我们最大的空间来储存我们的蜂蜜,

但需要最少的蜡?”

然后几何老师回答说:

“你要的形状
是圆形。”

让蜜蜂
返回他们的试验建筑工地

并开始使用圆形细胞建造他们的蜂窝

一段时间后,他们中的一些人
可能已经注意到

他们的设计存在问题:

细胞之间的小间隙。

“我们甚至不能进去!
那是浪费空间!”

他们可能已经想到了。

所以,忽略几何课

,把事情掌握在自己手中

,蜜蜂回到绘图板上

重新考虑他们的蜂箱设计。

一位建议使用三角形,

“我们可以使用三角形。看!
它们完美地结合在一起。”

另一只蜜蜂建议使用正方形。

最后,第三只蜜蜂插嘴说:

“五边形似乎不起作用,
但六边形可以!

我们想要一个
使用最少的蜡

并且能够
储存最多蜂蜜的那个。

是的,我认为 那是六边形。”

“为什么?”

“它看起来
比其他的更像圆圈。”

“但我们怎么确定呢?”

为了找出答案,勤劳的
昆虫建筑师

计算了三角形
、正方形和六边形的面积

,发现六边形实际上

是给
它们最多存储空间的形状。

他们就理想的尺寸达成一致
并重新开始工作。

今天作为蜜蜂商标的节省空间的梳子可能

是这种反复试验的结果,

但经过了漫长
的进化历史。

然而,它得到了回报。

窥视任何蜂巢——当然,

带着你的护目镜
和网

——你会看到最终的结果

:任何建筑师
都会为设计的漂亮紧凑的蜂窝。