The first 21 days of a bees life Anand Varma

(Music)

These bees are in my backyard
in Berkeley, California.

Until last year,
I’d never kept bees before,

but National Geographic asked me
to photograph a story about them,

and I decided, to be able
to take compelling images,

I should start keeping bees myself.

And as you may know,

bees pollinate one third
of our food crops,

and lately they’ve been having
a really hard time.

So as a photographer, I wanted to explore
what this problem really looks like.

So I’m going to show you
what I found over the last year.

This furry little creature

is a fresh young bee halfway emerged
from its brood cell,

and bees right now are dealing
with several different problems,

including pesticides, diseases,
and habitat loss,

but the single greatest threat
is a parasitic mite from Asia,

Varroa destructor.

And this pinhead-sized mite
crawls onto young bees

and sucks their blood.

This eventually destroys a hive

because it weakens
the immune system of the bees,

and it makes them more vulnerable
to stress and disease.

Now, bees are the most sensitive

when they’re developing
inside their brood cells,

and I wanted to know
what that process really looks like,

so I teamed up
with a bee lab at U.C. Davis

and figured out how to raise bees
in front of a camera.

I’m going to show you
the first 21 days of a bee’s life

condensed into 60 seconds.

This is a bee egg
as it hatches into a larva,

and those newly hatched larvae
swim around their cells

feeding on this white goo
that nurse bees secrete for them.

Then, their head and their legs
slowly differentiate

as they transform into pupae.

Here’s that same pupation process,

and you can actually see the mites
running around in the cells.

Then the tissue in their body reorganizes

and the pigment slowly
develops in their eyes.

The last step of the process
is their skin shrivels up

and they sprout hair.

(Music)

So – (Applause)

As you can see halfway
through that video,

the mites were running around
on the baby bees,

and the way that beekeepers
typically manage these mites

is they treat their hives with chemicals.

In the long run, that’s bad news,

so researchers are working
on finding alternatives

to control these mites.

This is one of those alternatives.

It’s an experimental breeding program
at the USDA Bee Lab in Baton Rouge,

and this queen and her attendant bees
are part of that program.

Now, the researchers figured out

that some of the bees have
a natural ability to fight mites,

so they set out to breed
a line of mite-resistant bees.

This is what it takes
to breed bees in a lab.

The virgin queen is sedated

and then artificially inseminated
using this precision instrument.

Now, this procedure allows the researchers

to control exactly
which bees are being crossed,

but there’s a tradeoff
in having this much control.

They succeeded in breeding
mite-resistant bees,

but in that process, those bees
started to lose traits

like their gentleness
and their ability to store honey,

so to overcome that problem,

these researchers are now collaborating
with commercial beekeepers.

This is Bret Adee opening
one of his 72,000 beehives.

He and his brother run the largest
beekeeping operation in the world,

and the USDA is integrating their
mite-resistant bees into his operation

with the hope that over time,

they’ll be able to select the bees
that are not only mite-resistant

but also retain all of these qualities
that make them useful to us.

And to say it like that

makes it sound like we’re manipulating
and exploiting bees,

and the truth is, we’ve been doing that
for thousands of years.

We took this wild creature
and put it inside of a box,

practically domesticating it,

and originally that was
so that we could harvest their honey,

but over time we started losing
our native pollinators,

our wild pollinators,

and there are many places now
where those wild pollinators

can no longer meet the pollination
demands of our agriculture,

so these managed bees have become
an integral part of our food system.

So when people talk about saving bees,

my interpretation of that

is we need to save
our relationship to bees,

and in order to design new solutions,

we have to understand
the basic biology of bees

and understand the effects
of stressors that we sometimes cannot see.

In other words, we have
to understand bees up close.

Thank you.

(Applause)

(音乐)

这些蜜蜂在我
加州伯克利的后院。

直到去年,
我以前从未养过蜜蜂,

但《国家地理》让
我拍摄关于它们的故事

,我决定,为了能够
拍出引人注目的照片,

我应该自己养蜜蜂。

你可能知道,

蜜蜂
为我们三分之一的粮食作物授粉

,最近它们的日子过
得很艰难。

所以作为一名摄影师,我想探索
这个问题的真实面貌。

因此,我将向您
展示我在过去一年中的发现。

这种毛茸茸的小动物

是一只刚从育雏细胞中长出来的小蜜蜂

,蜜蜂现在正
面临着几个不同的问题,

包括杀虫剂、疾病
和栖息地丧失,

但最大的威胁
是来自亚洲的寄生螨,

瓦螨 .

这种针头大小的螨虫会
爬到年轻的蜜蜂身上

,吸食它们的血。

这最终会破坏蜂巢,

因为它会削弱
蜜蜂的免疫系统,

并使它们更容易
受到压力和疾病的影响。

现在,蜜蜂

在它们的育雏细胞内发育时是最敏感的

,我想
知道这个过程到底是什么样子,

所以我
与加州大学的一个蜜蜂实验室合作。 戴维斯

并想出了如何
在镜头前养蜜蜂。

我将向您展示
将蜜蜂生命的前 21 天

浓缩为 60 秒。

这是一个孵化成幼虫的蜜蜂卵

,那些新孵化的幼虫
在它们的细胞周围游动,以

哺乳蜜蜂为它们分泌的白色粘液为食。

然后,它们的头和腿
慢慢分化

为蛹。

这是相同的化蛹过程

,您实际上可以看到螨虫
在细胞中四处奔跑。

然后他们体内的组织重新组织

,色素
在他们的眼睛中慢慢发展。

这个过程的最后一步
是他们的皮肤皱缩

并长出头发。

(音乐)

所以——(掌声)

正如你
在视频中看到的那样

,螨虫
在小蜜蜂身上四处奔跑,

而养蜂人
通常管理这些螨虫的方式

是他们用化学物质处理他们的蜂巢。

从长远来看,这是个坏消息,

因此研究人员正在
努力寻找替代方法

来控制这些螨虫。

这是其中一种选择。

这是
位于巴吞鲁日的美国农业部蜜蜂实验室的一项实验性育种计划

,这位蜂王和她的随行蜜蜂
是该计划的一部分。

现在,研究人员

发现一些蜜蜂具有
对抗螨虫的天然能力,

因此他们开始培育
一系列抗螨蜜蜂。

这就是
在实验室中繁殖蜜蜂所需要的。

处女女王被镇静

,然后
使用这种精密仪器进行人工授精。

现在,这个程序允许研究

人员准确控制
哪些蜜蜂正在被交叉,


在拥有如此多的控制权方面存在权衡。

他们成功地培育出
抗螨蜜蜂,

但在这个过程中,这些蜜蜂
开始失去

它们的温和性
和储存蜂蜜的能力等特征,

因此为了克服这个问题,

这些研究人员现在正在
与商业养蜂人合作。

这是 Bret Adee
打开他的 72,000 个蜂箱中的一个。

他和他的兄弟
经营着世界上最大的养蜂场

,美国农业部正在将他们
的抗螨蜜蜂整合到他的经营

中,希望随着时间的推移,

他们将能够选择
不仅抗螨而且抗螨的蜜蜂。

还保留所有这些
使它们对我们有用的品质。

这么说

让我们听起来像是在操纵
和利用蜜蜂,

而事实是,我们已经这样做了
数千年。

我们把这个野生
动物放在一个盒子里,

几乎驯化了它,

最初是为了收获它们的蜂蜜,

但随着时间的推移,我们开始失去
我们的本土传粉者,

我们的野生传粉者

,现在有很多
地方 那些野生传粉

者已不能满足
我们农业的授粉需求,

因此这些受管理的蜜蜂已成为
我们食物系统不可分割的一部分。

所以当人们谈论拯救蜜蜂时,

我的解释

是我们需要拯救
我们与蜜蜂的关系

,为了设计新的解决方案,

我们必须了解
蜜蜂的基本生物学,

了解我们有时看不到的压力源的影响 .

换句话说,我们
必须近距离了解蜜蜂。

谢谢你。

(掌声)