The genius of Marie Curie Shohini Ghose

If you want a glimpse
of Marie Curie’s manuscripts,

you’ll have to sign a waiver and put on
protective gear

to shield yourself
from radiation contamination.

Madame Curie’s remains, too,
were interred in a lead-lined coffin,

keeping the radiation that was the heart
of her research,

and likely the cause of her death,
well contained.

Growing up in Warsaw
in Russian-occupied Poland,

the young Marie, originally named
Maria Sklodowska,

was a brilliant student,
but she faced some challenging barriers.

As a woman, she was barred from pursuing
higher education,

so in an act of defiance,

Marie enrolled in the Floating University,

a secret institution that provided
clandestine education to Polish youth.

By saving money and working
as a governess and tutor,

she eventually was able to move to Paris
to study at the reputed Sorbonne.

There, Marie earned both a physics
and mathematics degree

surviving largely on bread and tea,

and sometimes fainting
from near starvation.

In Paris, Marie met the physicist
Pierre Curie,

who shared his lab and his heart with her.

But she longed to be back in Poland.

Upon her return to Warsaw, though,

she found that securing
an academic position as a woman

remained a challenge.

All was not lost.

Back in Paris,
the lovelorn Pierre was waiting,

and the pair quickly married and became
a formidable scientific team.

Another physicist’s work sparked
Marie Curie’s interest.

In 1896, Henri Becquerel discovered
that uranium spontaneously emitted

a mysterious X-ray-like radiation that
could interact with photographic film.

Curie soon found that the element
thorium emitted similar radiation.

Most importantly,
the strength of the radiation

depended solely on the element’s quantity,

and was not affected by physical
or chemical changes.

This led her to conclude that radiation
was coming from something fundamental

within the atoms of each element.

The idea was radical

and helped to disprove the long-standing
model of atoms as indivisible objects.

Next, by focusing on a super radioactive
ore called pitchblende,

the Curies realized that uranium alone
couldn’t be creating all the radiation.

So, were there other radioactive elements
that might be responsible?

In 1898, they reported two new elements,

polonium, named for Marie’s native Poland,

and radium, the Latin word for ray.

They also coined the term radioactivity
along the way.

By 1902, the Curies had extracted a tenth
of a gram of pure radium chloride salt

from several tons of pitchblende,

an incredible feat at the time.

Later that year, Pierre Curie
and Henri Becquerel

were nominated for
the Nobel Prize in physics,

but Marie was overlooked.

Pierre took a stand in support
of his wife’s well-earned recognition.

And so both of the Curies and Becquerel
shared the 1903 Nobel Prize,

making Marie Curie the first female
Nobel Laureate.

Well funded and well respected,
the Curies were on a roll.

But tragedy struck in 1906 when Pierre
was crushed by a horse-drawn cart

as he crossed a busy intersection.

Marie, devastated, immersed herself
in her research

and took over Pierre’s teaching position
at the Sorbonne,

becoming the school’s
first female professor.

Her solo work was fruitful.

In 1911, she won yet another Nobel,

this time in chemistry for her earlier
discovery of radium and polonium,

and her extraction and analysis of
pure radium and its compounds.

This made her the first,
and to this date,

only person to win Nobel Prizes
in two different sciences.

Professor Curie put
her discoveries to work,

changing the landscape of medical research
and treatments.

She opened mobile radiology units
during World War I,

and investigated radiation’s
effects on tumors.

However, these benefits to humanity
may have come at a high personal cost.

Curie died in 1934 of
a bone marrow disease,

which many today think was caused
by her radiation exposure.

Marie Curie’s revolutionary research

laid the groundwork for our understanding
of physics and chemistry,

blazing trails in oncology, technology,
medicine, and nuclear physics,

to name a few.

For good or ill, her discoveries
in radiation launched a new era,

unearthing some of
science’s greatest secrets.

如果您想看
一眼居里夫人的手稿,

您必须签署一份弃权书并穿上
防护装备

以保护自己
免受辐射污染。

居里夫人的遗体也
被安葬在一个衬有铅的棺材中,

将作为她研究核心的辐射,

也可能是她的死因,得到了
很好的控制。

年轻的玛丽(原名
Maria Sklodowska)在俄罗斯占领的波兰华沙长大,

是一名出色的学生,
但她面临着一些具有挑战性的障碍。

作为一名女性,她被禁止接受
高等教育,

因此为了反抗,

玛丽进入了浮动大学,这

是一所
为波兰青年提供秘密教育的秘密机构。

通过存钱和
担任家庭教师和家庭教师,

她最终能够搬到
巴黎,在著名的索邦大学学习。

在那里,玛丽获得了物理
和数学学位,

主要靠面包和茶

维生,有时会
因近乎饥饿而昏倒。

在巴黎,玛丽遇到了物理学家
皮埃尔·居里,

后者与她分享了他的实验室和他的心。

但她渴望回到波兰。

然而,回到华沙后,

她发现
作为女性获得学术职位

仍然是一项挑战。

一切都没有丢失。

回到巴黎
,失恋的皮埃尔在等待

,两人迅速结婚,成为
一支强大的科学团队。

另一位物理学家的工作引发了
居里夫人的兴趣。

1896 年,亨利·贝克勒尔
发现铀会自发地发射

出一种神秘的 X 射线状辐射,这种辐射
可以与胶卷发生相互作用。

居里很快发现
钍元素发出了类似的辐射。

最重要
的是,辐射的强度

仅取决于元素的数量

,不受物理
或化学变化的影响。

这使她得出结论,
辐射来自

每个元素原子内的基本物质。

这个想法是激进的

,有助于反驳长期以来
将原子视为不可分割的物体的模型。

接下来,通过专注于一种
名为沥青铀矿的超放射性矿石

,居里夫妇意识到仅靠铀
无法产生所有的辐射。

那么,是否还有其他放射性元素
可能对此负责?

1898 年,他们报道了两种新元素,

钋(以玛丽的故乡波兰命名)

和镭(拉丁词中的射线)。

他们还创造了放射性一词

到 1902 年,居里夫妇从数吨沥青闪石中提取了十分
之一克的纯氯化镭盐

这在当时是一项令人难以置信的壮举。

那年晚些时候,皮埃尔·居里
和亨利·贝克勒尔


提名诺贝尔物理学奖,

但玛丽被忽视了。

皮埃尔站出来
支持他妻子来之不易的认可。

于是居里夫妇和贝克勒尔
分享了 1903 年的诺贝尔奖,

使居里夫人成为第一位女性
诺贝尔奖获得者。

居里夫妇资金充足,受人尊敬
,生意兴隆。

但悲剧发生在 1906 年,皮埃尔

穿过一个繁忙的十字路口时被一辆马车压死。

悲痛欲绝的玛丽全神贯注
于她的研究

并接任皮埃尔
在索邦大学的教学职位,

成为该校第
一位女教授。

她的独奏作品硕果累累。

1911 年,她再次获得诺贝尔奖,

这次是因为她较早
发现了镭和钋,

并提取和分析了
纯镭及其化合物。

这使她成为第一位,
也是迄今为止

唯一一位
在两种不同科学领域获得诺贝尔奖的人。

居里教授将
她的发现付诸实践,

改变了医学研究
和治疗的格局。

她在第一次世界大战期间开设了移动放射科

并研究了辐射
对肿瘤的影响。

然而,这些对人类的好处
可能是以高昂的个人成本为代价的。

居里于 1934 年
死于骨髓疾病,

今天许多人认为这是
由她的辐射暴露引起的。

居里夫人的革命性研究

为我们理解物理和化学奠定了基础,

在肿瘤学、技术、
医学和核

物理等领域开辟了新的道路。

不管是好是坏,她
在辐射方面的发现开启了一个新时代,

发掘了一些
科学最伟大的秘密。