What cameras see that our eyes dont Bill Shribman

Translator: Andrea McDonough
Reviewer: Bedirhan Cinar

The human eye is one of the most powerful machines

on the planet.

It’s like a 500 megapixel camera

that can run in bright light,

in near darkness,

and even under water, though not real well.

It communicates to our brains

so much about the world.

Our eyes are how we find partners,

how we understand the people around us,

how we read,

and how we watch game shows on TV

where people get knocked into cold water

by padded wrecking balls.

Yup, the human eye is pretty neat,

and we’re lucky enough to have two of them.

But, there are things that,

despite looking really hard,

we still can’t quite see.

For example, you can watch a horse galloping,

but your eyes can’t keep up with its fast-moving hooves

enough to figure out whether all four feet

are ever off the ground simultaneously.

For these types of questions, we need cameras.

About 150 years ago,

the photographer Eadweard Muybridge used one

to solve the galloping horse mystery.

Using careful photography,

Muybridge proved that at certain points as it gallops,

a horse really is flying.

“Look, ma! No hooves!”

Since then, photography has found its way

into all aspects of math and science.

It enhances our understanding of a world

we thought we could already see,

but it’s one which we really need help

to see a little better.

It’s not always a matter of the world

moving by too quickly for our eyes to process.

Sometimes cameras can help us see matter or movements

that are too small for the naked eye.

Botanists use multiple photographs

to show the life cycle of plants

and how flowers turn over the course of a few hours

to follow the sun in what is called phototropism,

growing towards the light.

Mathematicians have used photos

to look at where in the twists and turns of a whip

the crack sound comes

when the whip is breaking the sound barrier.

Meteorologists and environmental scientists

show the growth of major hurricanes

and the recession over the years

of many of the world’s glaciers.

Slow-motion film or high-speed photography

have shown us the beating of a hummingbird’s wings

and the course of a bullet through its target.

In one project, cadavers,

that’s dead bodies,

were frozen and sliced into thousands of wafer-thin discs.

The discs were photographed

to produced animated movies

that allow a viewer to travel up and down the skeleton,

and into the flesh,

and through the bones,

and the veins,

and,

perhaps I should have suggested

you don’t watch this during dinner,

my bad.

In classrooms today, the camera,

now present in just about every phone and computer,

allows the youngest scientists

to observe the world around them,

to document it,

and to share their findings online.

Whether it’s the change of seasons

or the growth of the germinating seed,

cameras are allowing us to see a beautiful world

through new eyes.

译者:Andrea McDonough
审稿人:Bedirhan

Cinar 人眼是地球上最强大的机器

之一。

它就像一个 500 兆像素的相机

,可以在明亮的光线下

、近乎黑暗的地方,

甚至在水下运行,尽管效果并不好。

它向我们的大脑传达了

很多关于世界的信息。

我们的眼睛是我们如何寻找合作伙伴,

我们如何了解我们周围的人,

我们如何阅读,

以及我们如何在电视

上观看人们

被填充的破坏球撞入冷水的游戏节目。

是的,人的眼睛很漂亮

,我们很幸运能拥有两个。

但是,有些东西,

尽管看起来很努力,

但我们仍然看不到。

例如,您可以看到一匹马疾驰,

但您的眼睛无法跟上它快速移动的蹄子

,无法判断是否所有四只脚

都同时离开地面。

对于这些类型的问题,我们需要相机。

大约 150 年前

,摄影师 Eadweard Muybridge 用一个

来解开奔马之谜。

通过仔细的摄影,

迈布里奇证明了在它疾驰的某些时刻,

一匹马真的在飞翔。

“看,妈!没有蹄子!”

从那时起,摄影就

进入了数学和科学的各个方面。

它增强了我们对

我们认为已经可以看到的世界的理解,

但我们确实需要帮助

才能看得更清楚。

对于我们的眼睛来说,这并不总是一个世界发展得太快的问题。

有时,相机可以帮助我们看到肉眼无法看到的物质或运动

植物学家使用多张照片

来展示植物的生命周期

以及花朵如何在几个小时的过程中

以所谓的向光性跟随太阳,

向光生长。

数学家们用照片

来观察鞭子在曲折的地方,

当鞭子打破音障时,会发出噼啪声。

气象学家和环境科学家

展示了多年来世界上许多冰川的主要飓风的增长

和衰退

慢动作电影或高速摄影

向我们展示了蜂鸟翅膀的拍打

和子弹穿过目标的过程。

在一个项目中,尸体,

也就是尸体,

被冷冻并切成数千片薄薄的圆盘。

这些光盘被拍摄

成动画电影

,让观众可以在骨骼上下移动

,进入肉体

,穿过骨骼

和静脉,

也许我应该建议

你不要在晚餐时观看,

我的错。

在今天的教室里,

几乎每部手机和电脑都配备了摄像头,

让最年轻的科学家

能够观察周围的世界

,记录下来,

并在网上分享他们的发现。

无论是季节的更替,

还是萌芽的种子的生长,

相机都让我们以全新的眼光看到了一个美丽的世界