Interactive transcript · 172 lines
Good morning, and welcome to TalkCast.
美好的早晨,欢迎来到TalkCast。
This is your daily morning English news digest, where we bring you the world's most compelling
这是您每日的早间英语新闻摘要,在这里我们为您带来世界上最引人注目的
stories in clear, engaging, and accessible English.
清晰、生动且易懂的英语故事。
I am Ethan, your lead anchor.
我是伊森,您的主播。
And a wonderful morning to everyone tuning in.
祝每一位收听节目的听众早安。
I am Emma, your co -host and commentator.
我是埃玛,您的联合主持人和评论员。
Today is October 25th, 2026.
今天是2026年十月25日。
Whether you are brewing your first cup of coffee, preparing breakfast for the family, or stepping
无论您是在冲泡第一杯咖啡,为家人准备早餐,还是迈步
out on your morning walk, we have an inspiring lineup of science, technology, and everyday insights
走出家门晨练,我们都有一份鼓舞人心的科学、技术和日常见解阵容
to brighten your morning.
来点亮您的早晨。
Here is what we are covering today.
以下是我们今天要报道的内容。
In archaeology and ancient history, biometric analysis of clay impressions on the Kin Terracotta
在考古学和古代历史中,对秦兵马俑陶泥印记的生物识别分析
Army reveals that nearly a third of the craftspeople were women, rewriting long -held assumptions
表明近三分之一的工匠是女性,这重写了人们长期以来的假设
about the imperial workshops.
关于皇家作坊的认知。
Then in high -tech manufacturing, global chipmakers enter an unprecedented race for advanced
随后在高科技制造业中,全球芯片制造商展开了一场空前的先进竞赛
lithography systems, with equipment orders extending all the way to 2030.
光刻系统,设备订单一直延伸到2030年。
We also explore a surprising medical development.
我们还将探讨一项令人惊讶的医学发展。
Why the standard seasonal flu shot is dropping from four strains down to three, as one influenza
为什么标准季节性流感疫苗将从四种毒株减少到三种,因为有一种流感
lineage appears to have vanished entirely.
谱系似乎已经完全消失了。
Plus, in consumer lifestyle, why millions of young consumers are packing away classic canvas
另外,在消费生活方式方面,为什么数百万年轻消费者收起了经典的帆布
sneakers in favor of ergonomic comfort.
球鞋,转而追求人体工学的舒适感。
And our morning briefs highlight an essential vehicle safety warning about claw hair clips,
我们的早间简报重点关注了一项关于抓夹的至关重要的汽车安全警告,
alongside sightings of a living fossil viper and new school holiday schedules.
以及对一种活化石毒蛇的目击和新的学校假期日程安排。
Ethan, let us start underground in the historic pits of Xi 'an.
伊森,让我们从西安历史遗址坑的地下开始。
Our lead story brings a stunning revelation from the world of bioarchaeology.
我们的头条新闻带来了来自生物考古学界的惊人启示。
For over 2 ,200 years, the life -size terracotta warriors have guarded the mausoleum of China's first emperor.
2200多年来,真人大小的兵马俑一直守卫着中国第一位皇帝的陵墓。
Now, a meticulous biological study of 23 pottery statues in pit number one has uncovered 79 ancient
现在,对一号坑23尊陶俑进行的一项细致的生物学研究揭示了79个古代
fingerprints pressed into the clay.
按在陶泥中的指纹。
Fingerprints left behind in wet clay over two millennia ago?
在两千年前的湿泥中留下的指纹?
That sounds like an ancient forensic detective case.
这听起来像是一个古代法医侦探案件。
What did the scientific analysis reveal about the artisans who left them?
科学分析对留下它们的工匠有什么发现?
Through quantitative biometric analysis, researchers determined that approximately 32 .7 percent,
通过定量生物识别分析,研究人员确定,大约32.7%,
nearly one -third, of those identified prints belong to adult female artisans.
经确定的指纹中近三分之一属于成年女性工匠。
Wait, Ethan, let us pause right there for our language learners.
等等,伊森,让我们为语言学习者在这里暂停一下。
How can modern scientists look at a faint impression in fired clay and determine whether the person
现代科学家如何通过观察烧制陶泥上的微弱印记来判断
who pressed it was male or female?
按压它的人是男性还是女性?
They measure what forensic anthropologists call epidermal ridge density.
他们测量法医人类学家所称的表皮嵴密度。
The friction ridges on human fingers, the tiny lines that create fingerprints, tend to be
人类手指上的摩擦嵴,即构成指纹的微小线条,往往
significantly denser and finer in adult females compared to adult males.
与成年男性相比,成年女性的这些线条显著更密、更细。
By calculating the number of ridges per square millimeter with microscopic precision, researchers
通过以显微镜般的精确度计算每平方毫米的嵴数,研究人员
can establish biological profiles with high statistical certainty.
可以以高度的统计学确定性建立生物学特征。
That is incredible.
这真是令人难以置信。
In many history textbooks, massive imperial construction projects like the Terracotta Army were
在许多历史教科书中,像兵马俑这样宏大的皇家建筑工程
traditionally pictured as strictly male -dominated corvée labor camps.
传统上被描绘为纯粹由男性主导的徭役劳工营。
This evidence shows that women were not merely peripheral.
这一证据表明,女性并非仅仅处于边缘地位。
They were skilled craftspeople, shaping, detailing, and assembling these masterpieces with their own hands. Exactly.
她们是熟练的工匠,亲手塑造、刻画和组装这些杰作。没错。
It offers tangible, human -level biological evidence of the social and economic roles held by women
它为女性在秦代所扮演的社会和经济角色提供了切实的人本级生物学证据。
in the Qin dynasty.
在秦朝。
From ancient clay craftsmanship, let us now fast forward to the ultimate frontier of modern
从古代陶泥工艺,让我们现在快进到现代的终极前沿
precision manufacturing, silicon chips.
精密制造,硅芯片。
Our second story takes us into the semiconductor industry, where equipment manufacturers report an
我们的第二则报道将我们带入了半导体行业,设备制造商报告称
extraordinary rush.
出现了空前的抢购热潮。
Leading manufacturers, including ASML, report that clients have already submitted equipment
包括ASML在内的领先制造商报告称,客户已经提交了设备
inquiries and reservations, stretching as far ahead as 2029 and 2030.
查询和预订,时间甚至一直延伸到2029年和2030年。
To meet this explosive demand, manufacturing capacity for both extreme ultraviolet, known as EUV,
为了满足这爆发式的需求,无论是被称为EUV的极紫外线
and deep ultraviolet, or DUV lithography machines, is being expanded by 30 % next year.
还是深紫外线(DUV)光刻机的制造能力,都将在明年扩大30%。
Meanwhile, Canon is preparing to ramp up its alternative nano -imprint lithography systems.
与此同时,佳能正准备加大其替代性纳米压印光刻系统的生产。
Ethan, for those of us who do not work in cleanroom semiconductor labs, could you give us an
伊森,对于我们这些不在无尘半导体实验室工作的人来说,
everyday metaphor for what a lithography machine actually does?
你能用一个日常的比喻来解释光刻机实际上是做什么的吗?
Imagine the most advanced photographic slide projector on Earth.
想象一下地球上最先进的幻灯片投影仪。
But instead of projecting family vacation photos onto a living room wall, it projects microscopic
但它不是把家庭度假照片投射到客厅的墙上,而是将微观的
electrical highway maps onto silicon wafers.
电子高速公路地图投射到硅晶圆上。
EUV lithography uses light with an ultra -short wavelength of just 13 .5 nanometers.
EUV光刻技术使用的是波长仅为13.5纳米的超短波光。
It allows engineers to etch billions of microscopic transistors onto a piece of silicon smaller than
它允许工程师在一块比……还要小的硅片上蚀刻数十亿个微小的晶体管
a postage stamp.
邮票还小的硅片上。
Billions of microscopic circuits printed by concentrated beams of light.
数十亿微小的电路是由集中的光束打印出来的。
And because generative artificial intelligence, electric vehicles, and high -performance computing
由于生 成式人工智能、电动汽车和高性能计算
centers are expanding so rapidly worldwide, no company can build next -generation microchips without
中心在全球范围内以如此迅速的速度扩张,没有任何公司能够在没有
these ultra -complex machines. Precisely.
这些超级复杂机器的情况下制造下一代微芯片。确实如此。
Because building a single EUV machine requires hundreds of thousands of precision components,
因为制造单台EUV机器需要数十万个精密部件、
specialized mirrors, and lasers, delivery lead times take years.
专门的镜子和激光器,交付交货时间需要数年。
Chipmakers must book their orders nearly half a decade in advance to secure their place in line.
芯片制造商必须提前近五年预订订单,以确保他们排队的位置。
It is truly the backbone of global digital infrastructure.
它确实是全球数字基础设施的支柱。
Now let us move from microscopic silicon chips to microscopic viruses, and a question that has
现在让我们从微小的硅芯片转向微小的病毒,以及一个
puzzled many people preparing for their autumn health checkups.
困扰了许多准备秋季健康体检的人的问题。
If you have visited a clinic recently for an annual influenza vaccine, you might have noticed a
如果你最近去诊所接种年度流感疫苗,你可能会注意到
subtle change in the vaccine options.
疫苗选项中发生了微妙的变化。
For years, the gold standard has been the quadrivalent vaccine, which protects against four distinct
多年来,黄金标准一直是四价疫苗,它可以预防四种不同的
strains of influenza.
流感病毒株。
Yet recently, immunization programs worldwide have begun returning to trivalent, meaning three
然而最近,世界各地的免疫计划已经开始恢复使用三价疫苗,即
-strain vaccines.
-株疫苗。
Some people immediately wondered, are health authorities cutting corners, or did an important
有些人立刻想知道,是卫生当局在偷工减料,还是一个重要的
component simply vanish?
成分就这样消失了?
Ethan, what is the scientific truth behind this shift?
伊森,这种转变背后的科学真相是什么?
The truth is astonishing.
真相令人震惊。
One of the viral lineages has effectively gone extinct.
其中一个病毒谱系实际上已经灭绝了。
Traditional quadrivalent flu vaccines cover two types of influenza A strains and two lineages of
传统的四价流感疫苗涵盖了两种甲型流感病毒株和两种
influenza B, the Victoria lineage and the Yamagata lineage.
乙型流感病毒株,即维多利亚谱系和山形谱系。
However, since March 2020, public health surveillance laboratories worldwide have not detected a
然而,自2020年3月以来,全球公共卫生监测实验室没有检测到
single confirmed case of the Yamagata lineage in human circulation.
任何人在人类传播中感染山形谱系的确诊病例。
Not a single case globally in more than six years.
在六年多的时间里,全球没有出现一例病例。
How did an entire lineage of seasonal flu simply disappear?
一个完整的季节性流感谱系怎么会就这样消失了呢?
Unlike influenza A, which mutates rapidly and spreads through animal reservoirs, influenza B evolves
与甲型流感不同,甲型流感变异迅速并通过动物宿主传播,乙型流感
much slower and relies almost entirely on human -to -human transmission.
进化速度要慢得多,几乎完全依赖于人与人之间的传播。
When global populations adopted comprehensive hygiene measures, wearing masks and reducing travel
当全球人口采取综合卫生措施,佩戴口罩并减少旅行时,
during the early 2020s, the transmission chain of the Yamagata lineage was completely broken.
在2020年代初,山形谱系的传播链被彻底打破了。
That is a remarkable medical milestone.
这是一个了不起的医学里程碑。
Human behavioral precautions inadvertently drove an entire viral lineage into extinction.
人类的行为防范措施无意中将整个病毒谱系推向了灭绝。
So, the World Health Organization officially recommended removing the Yamagata component because
因此,世界卫生组织正式建议移除山形成分,因为
vaccinating people against a virus that no longer exists in nature is completely unnecessary. Exactly.
给人们接种不再存在于自然界中的病毒疫苗是完全不必要的。确实如此。
A trivalent vaccine containing two influenza A strains and the Victoria lineage offers complete,
一种 包含两种甲型流感毒株和维多利亚谱系的三价疫苗提供了全面的、
targeted protection without surplus viral components.
没有多余病毒成分的针对性保护。
From seasonal health to your morning wardrobe, let us talk about a major shift happening in the
从季节性健康到你早晨的衣橱,让我们来谈谈正在发生的重大
