ABOUT THE SPEAKER
Drew Berry - Biomedical animator
Drew Berry creates stunning and scientifically accurate animations to illustrate how the molecules in our cell move and interact.

Why you should listen

Drew Berry is a biomedical animator whose scientifically accurate and aesthetically rich visualisations reveal the microscopic world inside our bodies to a wide range of audiences. His animations have exhibited at venues such as the Guggenheim Museum, Museum of Modern Art (New York), the Royal Institute of Great Britain and the University of Geneva. In 2010 he received a MacArthur Fellowship "Genius Award".

More profile about the speaker
Drew Berry | Speaker | TED.com
TEDxSydney

Drew Berry: Animations of unseeable biology

德鲁·贝利:不可视生物学的动画

Filmed:
2,509,183 views

我们无法直接观察分子及它们做什么-- 德鲁·贝利想改变这点。在TED悉尼他科学地展示了精确(又有趣)的动画,来帮助研究人员看到我们自己细胞里所看不到的工序
- Biomedical animator
Drew Berry creates stunning and scientifically accurate animations to illustrate how the molecules in our cell move and interact. Full bio

Double-click the English transcript below to play the video.

00:15
What I'm going to show显示 you
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我要展示给大家的
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are the astonishing惊人 molecular分子 machines
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是创造了你们身体活组织
00:21
that create创建 the living活的 fabric of your body身体.
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的惊人的分子机器
00:24
Now molecules分子 are really, really tiny.
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分子实在是很小
00:27
And by tiny,
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说到小呢,
00:29
I mean really.
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我的意思是真小
00:31
They're smaller than a wavelength波长 of light,
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它们比光的波长还小,
00:33
so we have no way to directly observe them.
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所以,我们无法直接观察它们
00:36
But through通过 science科学, we do have a fairly相当 good idea理念
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但是,通过科学,我们有一个很好的概念
00:38
of what's going on down at the molecular分子 scale规模.
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分子比例是怎么回事
00:41
So what we can do is actually其实 tell you about the molecules分子,
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我们能做到真实地告诉你分子的情况,
00:44
but we don't really have a direct直接 way of showing展示 you the molecules分子.
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但我们不能有一个直接的方法把分子展示给你们
00:47
One way around this is to draw pictures图片.
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有一种方法就是画图
00:50
And this idea理念 is actually其实 nothing new.
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实际上这已不是个新方法
00:52
Scientists科学家们 have always created创建 pictures图片
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科学家们总是在创造图片
00:54
as part部分 of their thinking思维 and discovery发现 process处理.
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作为他们思考和发现过程的一部分
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They draw pictures图片 of what they're observing观察 with their eyes眼睛,
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他们借助望远镜和显微镜之类的技术,
01:00
through通过 technology技术 like telescopes望远镜 and microscopes显微镜,
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以及他们大脑思考的
01:02
and also what they're thinking思维 about in their minds头脑.
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画出他们所观察到的
01:05
I picked采摘的 two well-known知名 examples例子,
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我举两个众所周知的例子,
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because they're very well-known知名 for expressing表达 science科学 through通过 art艺术.
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因为他们以通过艺术来表达科学而著名
01:10
And I start开始 with Galileo伽利略
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我先从伽利略开始
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who used the world's世界 first telescope望远镜
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伽利略用过世界上第一台望远镜
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to look at the Moon月亮.
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来看月亮
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And he transformed改造 our understanding理解 of the Moon月亮.
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他改变了我们对月亮的理解
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The perception知觉 in the 17th century世纪
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17世纪的感知
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was the Moon月亮 was a perfect完善 heavenly天上 sphere领域.
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月亮是个完美的天球
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But what Galileo伽利略 saw was a rocky岩石, barren荒芜 world世界,
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可是,伽利略所看到的是坚硬的,贫瘠的世界,
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which哪一个 he expressed表达 through通过 his watercolor水彩 painting绘画.
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他通过他的水彩画表达了出来
01:28
Another另一个 scientist科学家 with very big ideas思路,
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另一位的科学家有一个很大的想法,
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the superstar超级明星 of biology生物学, is Charles查尔斯 Darwin达尔文.
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他就是生物学界的超级明星-查尔斯·达尔文
01:33
And with this famous著名 entry条目 in his notebook笔记本,
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在他的笔记里,那著名的开始语,
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he begins开始 in the top最佳 left-hand左手 corner with, "I think,"
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他从左上角开始写道:“我认为,”
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and then sketches素描 out the first tree of life,
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接着呢,画出了第一棵生命树,
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which哪一个 is his perception知觉
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那就是他的见解
01:43
of how all the species种类, all living活的 things on Earth地球,
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地球上所有的物种及生物,
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are connected连接的 through通过 evolutionary发展的 history历史 --
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如何通过进化的历史而连接起来
01:48
the origin起源 of species种类 through通过 natural自然 selection选择
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物种的起源来自物竞天择
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and divergence差异 from an ancestral population人口.
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并分歧于一个祖先群体
01:53
Even as a scientist科学家,
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即使作为一名科学家,
01:55
I used to go to lectures讲座 by molecular分子 biologists生物学家
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我曾参加过分子生物学家们的演讲
01:57
and find them completely全然 incomprehensible费解的,
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发现完全无法理解,
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with all the fancy幻想 technical技术 language语言 and jargon行话
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他们使用所有时髦的技术语言和行话
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that they would use in describing说明 their work,
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来描述他们的作品,
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until直到 I encountered遇到 the artworks艺术品 of David大卫 Goodsell古德塞尔,
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知道我遇到大卫 古德塞尔的艺术作品,
02:07
who is a molecular分子 biologist生物学家 at the Scripps斯克里普斯 Institute研究所.
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他是斯克里普斯研究所的分子生物学家
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And his pictures图片,
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他的图画,
02:12
everything's一切的 accurate准确 and it's all to scale规模.
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样样都精确,并且都按比例
02:14
And his work illuminated发光的 for me
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他的作品对我释明
02:17
what the molecular分子 world世界 inside us is like.
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我们内在的分子世界是什么样
02:19
So this is a transection横断 through通过 blood血液.
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这是通过血液的一个横断面
02:22
In the top最佳 left-hand左手 corner, you've got this yellow-green黄绿色 area.
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在左上角,你看到这个黄绿色的区域
02:24
The yellow-green黄绿色 area is the fluids流体 of blood血液, which哪一个 is mostly大多 water,
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这个黄绿区血液的流体,大部分是水分,
02:27
but it's also antibodies抗体, sugars,
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但它也是抗体,糖分,
02:29
hormones激素, that kind of thing.
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和激素类的东西
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And the red region地区 is a slice into a red blood血液 cell细胞.
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这个红色区是一个红血球的切片
02:33
And those red molecules分子 are hemoglobin血红蛋白.
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这些红分子是血红蛋白
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They are actually其实 red; that's what gives blood血液 its color颜色.
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它们实际就是红色,也就是血液的颜色
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And hemoglobin血红蛋白 acts行为 as a molecular分子 sponge海绵
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血红蛋白像是一个分子海绵
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to soak浸泡 up the oxygen in your lungs
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在你的肺里面浸透氧气
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and then carry携带 it to other parts部分 of the body身体.
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再带到身体的其他部位
02:43
I was very much inspired启发 by this image图片 many许多 years年份 ago,
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很多年前,我就很被这个图像所激励,
02:46
and I wondered想知道 whether是否 we could use computer电脑 graphics图像
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我就想是否能够使用电脑绘图
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to represent代表 the molecular分子 world世界.
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来描绘分子世界
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What would it look like?
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它会是个什么样子呢?
02:52
And that's how I really began开始. So let's begin开始.
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就这样我就开始了。现在让我们来看,
02:55
This is DNA脱氧核糖核酸 in its classic经典 double helix螺旋 form形成.
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这是传统的DNA的双螺旋结构,
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And it's from X-rayX-射线 crystallography结晶学,
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它来自X射线晶体学,
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so it's an accurate准确 model模型 of DNA脱氧核糖核酸.
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所以它是一个精确的DNA模型
03:01
If we unwind放松 the double helix螺旋 and unzip拉开拉链 the two strands,
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如果我们把双螺旋展开,把两股拉开,
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you see these things that look like teeth.
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你们看到它们像牙齿一样
03:05
Those are the letters of genetic遗传 code,
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这些就是遗传密码的字母,
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the 25,000 genes基因 you've got written书面 in your DNA脱氧核糖核酸.
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在你的DNA上有25,000个基因
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This is what they typically一般 talk about --
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这就是他们通常谈论的 --
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the genetic遗传 code -- this is what they're talking about.
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遗传密码--大家都这样讲的
03:14
But I want to talk about a different不同 aspect方面 of DNA脱氧核糖核酸 science科学,
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我想从不同的角度来谈论DNA科学,
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and that is the physical物理 nature性质 of DNA脱氧核糖核酸.
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那是DNA的物理性质
03:19
It's these two strands that run in opposite对面 directions方向
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这两条线走向不同的方向
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for reasons原因 I can't go into right now.
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我现在先不讲什么原因
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But they physically物理 run in opposite对面 directions方向,
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它们实际上就是在走向不同的方向,
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which哪一个 creates创建 a number of complications并发症 for your living活的 cells细胞,
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这就给你们的活细胞制作了大量的混乱,
03:29
as you're about to see,
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你会看到,
03:31
most particularly尤其 when DNA脱氧核糖核酸 is being存在 copied复制.
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大多数特别是在DNA复制过程中
03:34
And so what I'm about to show显示 you
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我就要给你们看的是
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is an accurate准确 representation表示
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是一个精确的描述
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of the actual实际 DNA脱氧核糖核酸 replication复制 machine that's occurring发生 right now inside your body身体,
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有关DNA在你身体内部的实际复制,
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at least最小 2002 biology生物学.
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至少是2002的生物学
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So DNA'sDNA的 entering进入 the production生产 line线 from the left-hand左手 side,
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DNA从左手边进入生产线,
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and it hits点击 this collection采集, these miniature微型 biochemical生化 machines,
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撞倒这一堆小型的生化机器,
03:50
that are pulling apart距离 the DNA脱氧核糖核酸 strand and making制造 an exact精确 copy复制.
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这些生化机器把DNA线拉开,重新复制
03:53
So DNA脱氧核糖核酸 comes in
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DNA进来
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and hits点击 this blue蓝色, doughnut-shaped环形 structure结构体
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碰到这个蓝色的,圆圈状的结构
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and it's ripped撕开 apart距离 into its two strands.
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把两条线扯开
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One strand can be copied复制 directly,
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一条线可以直接复制,
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and you can see these things spooling后台 off to the bottom底部 there.
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你能看到这些放在底部
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But things aren't so simple简单 for the other strand
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但另一条线就没有这么简单
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because it must必须 be copied复制 backwards向后.
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因为它要反向复制
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So it's thrown抛出 out repeatedly反复 in these loops循环
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它要反复在这些圈里被推出
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and copied复制 one section部分 at a time,
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一次复制一段,
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creating创建 two new DNA脱氧核糖核酸 molecules分子.
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创造两个新的DNA分子
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Now you have billions数十亿 of this machine
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现在你有成千上亿的机器
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right now working加工 away inside you,
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此时此刻就在你里面工作,
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copying仿形 your DNA脱氧核糖核酸 with exquisite精美 fidelity保真度.
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忠实细致地复制着你的DNA
04:22
It's an accurate准确 representation表示,
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这是个很精确的描述,
04:24
and it's pretty漂亮 much at the correct正确 speed速度 for what is occurring发生 inside you.
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它的速度和你体内发生的正在进行的一样
04:27
I've left out error错误 correction更正 and a bunch of other things.
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我没提一些更正和其它的
04:32
This was work from a number of years年份 ago.
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这是几年前的作品
04:34
Thank you.
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谢谢!
04:36
This is work from a number of years年份 ago,
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这个是几年前的作品,
04:39
but what I'll show显示 you next下一个 is updated更新 science科学, it's updated更新 technology技术.
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接下来我要给你们看的是最新的科学,最新的技术
04:42
So again, we begin开始 with DNA脱氧核糖核酸.
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我们再次从DNA开始
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And it's jiggling轻摇 and wiggling摆动 there because of the surrounding周围 soup of molecules分子,
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因为周围被分子包围,它就不停摇摆扭动,
04:47
which哪一个 I've stripped剥离 away so you can see something.
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我揭开了所以你们看得到
04:49
DNA脱氧核糖核酸 is about two nanometers纳米 across横过,
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DNA大约有两个纳米宽,
04:51
which哪一个 is really quite相当 tiny.
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真的是非常小
04:53
But in each one of your cells细胞,
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在你的每一个细胞里,
04:55
each strand of DNA脱氧核糖核酸 is about 30 to 40 million百万 nanometers纳米 long.
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每条DNA大约是3至4千万纳米长
04:59
So to keep the DNA脱氧核糖核酸 organized有组织的 and regulate调节 access访问 to the genetic遗传 code,
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为了保持DNA有组织有规律地到达遗传密码,
05:02
it's wrapped包裹 around these purple紫色 proteins蛋白质 --
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它是被这些紫色的蛋白质包着--
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or I've labeled标记 them purple紫色 here.
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这是我是用了紫色
05:06
It's packaged包装 up and bundled捆绑 up.
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它打好包,打好捆
05:08
All this field领域 of view视图 is a single strand of DNA脱氧核糖核酸.
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这里看到的是单条的DNA
05:11
This huge巨大 package of DNA脱氧核糖核酸 is called a chromosome染色体.
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这一大包的DNA叫做染色体
05:14
And we'll come back to chromosomes染色体 in a minute分钟.
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我们过会再回来讲染色体
05:17
We're pulling out, we're zooming缩放 out,
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我们拉出来,拉远缩小,
05:19
out through通过 a nuclear pore,
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通过核膜孔拉出来,
05:21
which哪一个 is the gateway网关 to this compartment隔室 that holds持有 all the DNA脱氧核糖核酸
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核膜孔是通往储存DNA包厢的通道
05:24
called the nucleus.
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称为细胞核
05:26
All of this field领域 of view视图
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这里所看到的
05:28
is about a semester's学期 worth价值 of biology生物学, and I've got seven minutes分钟.
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够上一个学期的生物课,我把它压缩成7分钟
05:31
So we're not going to be able能够 to do that today今天?
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所以今天我们能不能讲那么细呢?
05:34
No, I'm being存在 told, "No."
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不能的,我被告知,不能的
05:37
This is the way a living活的 cell细胞 looks容貌 down a light microscope显微镜.
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这里是在光学显微镜下看到的活细胞
05:40
And it's been filmed拍摄 under time-lapse时间推移, which哪一个 is why you can see it moving移动.
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因为是採用慢速摄影,所以你们能看到它在动
05:43
The nuclear envelope信封 breaks休息 down.
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核膜打开了
05:45
These sausage-shaped腊肠状 things are the chromosomes染色体, and we'll focus焦点 on them.
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这些形状像香肠的是染色体,我们集中讲一下他们
05:48
They go through通过 this very striking引人注目 motion运动
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它们通过非常明显的运动
05:50
that is focused重点 on these little red spots斑点.
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集中在这些小红点上
05:53
When the cell细胞 feels感觉 it's ready准备 to go,
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当细胞准备好了,
05:56
it rips裂口 apart距离 the chromosome染色体.
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它就脱离染色体
05:58
One set of DNA脱氧核糖核酸 goes to one side,
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一组DNA去这一边,
06:00
the other side gets得到 the other set of DNA脱氧核糖核酸 --
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另一组DNA就去另一边
06:02
identical相同 copies副本 of DNA脱氧核糖核酸.
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DNA的复制一模一样
06:04
And then the cell细胞 splits拆分 down the middle中间.
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接下来,细胞在中间分裂
06:06
And again, you have billions数十亿 of cells细胞
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同样,你有成千上亿的细胞
06:08
undergoing经历 this process处理 right now inside of you.
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此时此刻在你体内正在做这个工序
06:11
Now we're going to rewind倒带 and just focus焦点 on the chromosomes染色体
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我们再回来看染色体
06:14
and look at its structure结构体 and describe描述 it.
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看看它的结构来讲述一下
06:16
So again, here we are at that equator赤道 moment时刻.
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我们现在是赤道时刻
06:19
The chromosomes染色体 line线 up.
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染色体们排着队
06:21
And if we isolate隔离 just one chromosome染色体,
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如果我们分出一条染色体,
06:23
we're going to pull it out and have a look at its structure结构体.
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我们把它拿出来看看它的结构
06:25
So this is one of the biggest最大 molecular分子 structures结构 that you have,
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这是你拥有的最大分子结构之一,
06:28
at least最小 as far as we've我们已经 discovered发现 so far inside of us.
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至少是至今我们发现的我们体内的
06:32
So this is a single chromosome染色体.
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这是个单条染色体
06:34
And you have two strands of DNA脱氧核糖核酸 in each chromosome染色体.
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每条染色体有两条DNA
06:37
One is bundled捆绑 up into one sausage香肠.
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一条卷起来进到一条香肠里
06:39
The other strand is bundled捆绑 up into the other sausage香肠.
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另一条卷起来进到另一条香肠里
06:41
These things that look like whiskers晶须 that are sticking症结 out from either side
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这些像胡须的东西从另一头伸出来
06:44
are the dynamic动态 scaffolding脚手架 of the cell细胞.
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它们是细胞的动态支架
06:47
They're called mircrotubulesmircrotubules. That name's名字的 not important重要.
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他们称作微管。名字并不重要
06:49
But what we're going to focus焦点 on is this red region地区 -- I've labeled标记 it red here --
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我们要集中在这个红色区域,我把它标成红色
06:52
and it's the interface接口
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这是个接口
06:54
between之间 the dynamic动态 scaffolding脚手架 and the chromosomes染色体.
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介于动态支架和染色体之间
06:57
It is obviously明显 central中央 to the movement运动 of the chromosomes染色体.
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很显然,它是染色体运动的中枢
07:00
We have no idea理念 really as to how it's achieving实现 that movement运动.
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我们也搞不懂它到底是怎么运动的
07:03
We've我们已经 been studying研究 this thing they call the kinetochore着丝点
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我们一直在研究一种叫动力球的东西
07:05
for over a hundred years年份 with intense激烈 study研究,
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认真研究了上百年,
07:07
and we're still just beginning开始 to discover发现 what it's all about.
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我们发现它仍处在初级阶段
07:10
It is made制作 up of about 200 different不同 types类型 of proteins蛋白质,
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它由大约200种不同的蛋白质组成,
07:13
thousands数千 of proteins蛋白质 in total.
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总共有上千种蛋白质
07:16
It is a signal信号 broadcasting广播 system系统.
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它是一个信号传播系统
07:19
It broadcasts广播 through通过 chemical化学 signals信号
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它通过化学信号传播
07:21
telling告诉 the rest休息 of the cell细胞 when it's ready准备,
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告诉其它的细胞它准备好了,
07:24
when it feels感觉 that everything is aligned对齐 and ready准备 to go
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当它觉得事情都准备好了
07:27
for the separation分割 of the chromosomes染色体.
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为了染色体的分裂
07:29
It is able能够 to couple一对 onto the growing生长 and shrinking萎缩 microtubules微管.
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它能够把成长的和缩小的微管连接起来
07:32
It's involved参与 with the growing生长 of the microtubules微管,
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它也参与微管的成长,
07:35
and it's able能够 to transiently瞬时 couple一对 onto them.
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它能暂时连接它们
07:38
It's also an attention注意 sensing传感 system系统.
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它也是个能感觉注意力的系统
07:40
It's able能够 to feel when the cell细胞 is ready准备,
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它能感觉到什么时候细胞准备好了,
07:42
when the chromosome染色体 is correctly正确地 positioned定位的.
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什么时候染色体位置正确
07:44
It's turning车削 green绿色 here
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这里变成绿色
07:46
because it feels感觉 that everything is just right.
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因为它感觉样样都对
07:48
And you'll你会 see, there's this one little last bit
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你会看到,这里有一点点
07:50
that's still remaining其余 red.
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还是红色
07:52
And it's walked away down the microtubules微管.
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它在微管下面走开了
07:56
That is the signal信号 broadcasting广播 system系统 sending发出 out the stop signal信号.
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这是信号传播系统发出停止的信号
07:59
And it's walked away. I mean, it's that mechanical机械.
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它走开了,我的意思是,它是机械的
08:02
It's molecular分子 clockwork发条装置.
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分子式钟表装置
08:04
This is how you work at the molecular分子 scale规模.
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这就是在分子比例层的工作
08:07
So with a little bit of molecular分子 eye candy糖果,
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有点分子式的华而不实,
08:10
we've我们已经 got kinesins驱动蛋白, which哪一个 are the orange橙子 ones那些.
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我们还有驱动蛋白,是这些橙色的
08:13
They're little molecular分子 courier信使 molecules分子 walking步行 one way.
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它们是分子的信差,单向行走
08:15
And here are the dynein动力蛋白. They're carrying携带 that broadcasting广播 system系统.
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这里是动力蛋白。它们携带者传播系统
08:18
And they've他们已经 got their long legs so they can step around obstacles障碍 and so on.
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它们有长长的腿,能跨越障碍物
08:21
So again, this is all derived派生 accurately准确
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同样地,从科学的角度来说
08:23
from the science科学.
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所有这些都很精确
08:25
The problem问题 is we can't show显示 it to you any other way.
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问题是我们不能用别的方法展示给你们看
08:28
Exploring探索 at the frontier边境 of science科学,
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用人类的领悟力的前沿,
08:30
at the frontier边境 of human人的 understanding理解,
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来探索科学的前沿,
08:32
is mind-blowing令人兴奋.
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太令人兴奋了
08:35
Discovering发现 this stuff东东
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去发现这些东西
08:37
is certainly当然 a pleasurable愉快的 incentive激励 to work in science科学.
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确实是在科学领域工作的令人愉快的奖励
08:40
But most medical researchers研究人员 --
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但,大多数的医学研究者们,
08:43
discovering发现 the stuff东东
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发现这种东西
08:45
is simply只是 steps脚步 along沿 the path路径 to the big goals目标,
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只是通往远大目标的简单步骤,
08:48
which哪一个 are to eradicate根除 disease疾病,
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那就是根除疾病,
08:51
to eliminate消除 the suffering痛苦 and the misery苦难 that disease疾病 causes原因
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减少疾病造成的痛苦和不幸
08:53
and to lift电梯 people out of poverty贫穷.
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带人脱离贫困
08:55
Thank you.
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谢谢!
08:57
(Applause掌声)
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(掌声)
Translated by Emma Zhao
Reviewed by Guo Tang

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ABOUT THE SPEAKER
Drew Berry - Biomedical animator
Drew Berry creates stunning and scientifically accurate animations to illustrate how the molecules in our cell move and interact.

Why you should listen

Drew Berry is a biomedical animator whose scientifically accurate and aesthetically rich visualisations reveal the microscopic world inside our bodies to a wide range of audiences. His animations have exhibited at venues such as the Guggenheim Museum, Museum of Modern Art (New York), the Royal Institute of Great Britain and the University of Geneva. In 2010 he received a MacArthur Fellowship "Genius Award".

More profile about the speaker
Drew Berry | Speaker | TED.com

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