Saving the horseshoe crab fighting the virus with nano science

so today i’m going to tell you a little

story

about my evolution from academia into

enterprise

and his story starts like any other

story

a typical day in the lab and an

inspirational walk on the beach

maybe not quite like every story but

needless to say i was a graduate student

at the joint school of nanoscience and

nano engineering working with fullerenes

preparing for my dissertation when i

received a phone call

from an old friend and an industry

collaborator

and they said to me on the phone

anthony we need to figure out something

with forage fish and this fishing

problem

i had no clue what he was talking about

that day

but we spent a lot of time on the phone

discussing forage fish

i’ll tell you a little bit about this

fish the forage fish

are small schooling fish they’re oily

we typically catch them by the loads

using large nets

they’re extremely important to all of

our oceans

as they form the backbone of all of the

oceans nutrition

they transfer the energy from plankton

up the food chain

so all of the fish in the ocean rely on

these all of our seabirds that fly over

into the ocean rely on these fish

and our coastal mammals and other

animals all rely on these fish

the challenge that was presented to me

on the phone that day

was their utilization which was

unsustainable

historically we considered these fish

unlimited

but what happened over time was multiple

industries

started sticking their hands in the

forage fish cookie jar

we use these fish to feed our farmed

fish

aquaculture as they make these fish

healthy for us to eat

we also eat these fish and we take these

fish as vitamin supplements from their

fish oils that’s extracted from them

they’re also ground up and fed into our

barnyard animals as agriculture feed

and even our companion kitties eat them

it’s in our cat food

but i’m going to start my journey my

talk with you today

about their utilization as bait

so every year about 40 percent of the

total fish that we capture in our oceans

are these small schooling fish again

their neck caught very easily to catch

large amounts of them

about 18 million tons of these fish get

used

to bait a trap so we’re using a fish to

catch a fish

and that’s what that conversation was

about how can we create something

more sustainable because the utilization

by all of these industries was just too

much now

it was starting to affect the oceans it

was also starting to affect the coastal

vibrancies of fishing communities

they needed solutions and the methods

that are used to capture these fish

are not great these large nets that run

across the bottom of the ocean

scraping and destroying the floor and

coral they also

indiscriminately catch other animals and

trapped them within the net

so as a scientist

we devised the strategy and we went into

the lab

and the r d process went from there what

we had to do

was figure out why crustaceans were

attracted to a trap

that was being baited with these forage

fish

seemed simple enough we had all the

tools at our hands

what we needed to do was figure out

exactly

why the crustacean traveled to that trap

with the forage fish and we had to

identify individual molecules that were

being released

from the fish as it sat in the trap and

we use things like

high performance liquid chromatography

and mask

spectroscopy to be able to identify the

individual molecules

that were being emitted from these fish

traveling around the trap

and lowering crustaceans in

we found a lot of molecules and we were

able to articulate

which combination of molecules had the

most profound

impact on luring these species to a trap

and we really thought we were close to

being done

but then we had to figure out how to

make a matrix

a matrix that would adapt to all fishing

communities

because fishing is very different in

different places it might be shorter

a couple of days in some places it might

be two weeks in other places

and the temperatures change so we had to

accommodate

the industry in order to be able to have

a successful deployment

of an alternative bait that could

introduce sustainability

and vibrancy back into this sector

so we designed several different

matrixes

with the fortunate help from

organizations like the national science

foundation

and the north carolina sea grant the

infrastructure that we had

available to us at the joint school of

nanoscience and nano engineering

we were able to come up with an

alternative a synthetic and sustainable

method of fishing without ever having to

use

fish and it was something the industry

needed so when we met with the industry

there were several things that we had to

incorporate into this idea

not just something that worked but we

had to solve some pains along the way

and the research had to be dedicated to

creating a bait

that didn’t require refrigeration or

storage

and it was stable and it was very easy

to use

and it could attract crabs and lobsters

and could be consistently available and

competitive

with what they were already using they

were

thrilled and so were we

and then i got another phone call

and on this day the person on the other

end

said does your bait work for eels

and welks along the northeast here eels

and welks are commonly caught

i honestly didn’t know the answer to

that question but i had two

undergraduate students at the time and i

told them

look into this

and the next morning they came in and

said anthony

it’s bigger than bait it’s horseshoe

crabs

horseshoe crabs well horseshoe crabs

were what this industry was using as

bait

but what we learned was the value of the

horseshoe crab to society

was tremendous so what if i were to tell

you

that the blood from a horseshoe crab has

affected everyone listening to this

and it’s considered one of the most

precious liquids on earth

and it’s about sixty thousand dollars a

gallon

would you believe me what if i told you

their blood was blue

well let me tell you a little bit about

this unique blood from this

ancient arthropod the horseshoe crab has

survived

all of earth’s mass extinctions it is a

very resilient organism

and within its blue blood is a single

circulating cell type

it’s called the amoeba site and within

that amoeba cider proteins

and those proteins interact with the

gram-negative bacteria

whenever a gram-negative bacteria is in

the presence

of these amoebosites a gel clot forms

and why this was important to us was

because

this method became the approved method

and the ideal method

to ensure that anything that was

injected into us

an antibiotic perhaps more timely in

these days

a vaccine of which we have a hundred and

twenty in development globally right now

an instrument that might be implanted in

us

all of these things are safeguarded

quality controlled

through this ancient horseshoe crabs

blood cell

the amoeba site

but as i mentioned there’s a problem

our coastlines are changing they’re

eroding which is the areas where the

horseshoe crabs spawn

secondary to that our oceans are

changing

i already mentioned that they were used

as bait but another challenge is their

utilization

and serving us as a quality control

measurement

right now we go out to the beaches and

collect crabs and bring them back to a

facility

and their bled for about a third of

their blood volume and then in time

they’re redeployed

and this process can take a day or two

or three

and it can be challenging for these

animals

so we thought hmm what if we could

aquaculture them

sounds like a good opportunity for both

modern medicine and the vital species

so that’s exactly what we did we went

back to all of our friends at the

national science foundation

that helped us do the organo bait

research we went back to the north

carolina sea grant

we reached out to everyone we knew and

we decided

to prove that we could do horseshoe crab

aquaculture

which would be an ability to grow these

crabs and maintain these crabs in a

pristine environment

proximal to where you would take their

blood and you could ensure

that their environment was managed and

safe and optimized

and what we would do is we would provide

them the best

feed that you could to make sure that

they’re healthy

and our goal was to be able to eliminate

the need for wild capture

preserving this species and maintaining

this great

donation that this species makes to

modern medicine

it took some time but we got there

here in north carolina we have horseshoe

crabs

they eat some of the best functional

feed you can imagine

and we believe that they can continue

making this contribution based on this

research

but we really weren’t done there because

we had a new opportunity

you see the amoeba site and the lal

always had an opportunity in human

medicine but it had never been

found compatible in a blood specimen

due to inhibitors or interference

so we set out to prove that because we

now have proved we could aquaculture

horseshoe crabs

and we could make an unlimited supply of

lal sustainably

could we use this to optimize

the way that we detect for bacteria in

patients in the hospital

you see because this is a big problem

there’s not many great instruments out

there that do it

and a lot of times by the time you know

it it can be too late

the bacteria has overburdened the system

and the patient has drifted into sepsis

which is the number one cause of

untimely death in the hospital

so we thought we could remove this

problem associated with current methods

which is unreliable and takes a couple

of days and days are not what people

have

given that we had now an unlimited

supply of lal we had a real opportunity

to make a meaningful impact

and just as we were getting there we

were so close

we discovered exactly what we needed and

we’re ready to move forward

and all of a sudden our world changed

we got confronted with a viral pandemic

and the way that the world the very

fabric of the world

was disrupted the way we did everything

but we weren’t ready to stop anything we

were doing what we wanted to do was

leverage what we knew

and figured out how we could apply that

right now

towards this situation knowing that we

were going to go back to these other

things but we had a moral obligation to

these

new risks that were being imposed in

society

so we had learned a lot along the way

about the horseshoe crab but more

importantly the horseshoe crabbit taught

us a lot about

pathogens in order to conduct the

research

we needed to understand how pathogens

behave

when dealing with a new virus

we also had a very strong foundation in

nanoscience

so we thought giving what the horseshoe

crab had taught us

and our understanding of nanoscience

what if we could create

an atomic scale anti-microbial

that was urgently needed and could solve

a lot of the problems associated with

the current pandemic

we arrived at fullerenes which is a

nanoscale molecule

of about one nanometer in size 120 times

smaller than a virus

that can be specially functionalized to

impart

a massive antimicrobial effect

and we considered how we could apply

this to the current situation

and we looked at the shortcomings

associated with the current situation

masks that we wear today are great

but they predominantly function as

barrier garments

preventing something from getting

through it’s a size filtration

we thought okay we might have an

improvement here

using what the horseshoe crap taught us

using what we knew about fullerenes

using what we knew about atomic scale

interactions

we also looked at the other areas that

could be improved

the garments we wear the booties on our

feet the lab coats the physicians coats

the sheets the upholstery the fabric in

hospitals

all of these areas where these pathogens

were being found

what if we had a way to make them

bioactive

give them an ability to draw pathogens

in but not just hold them

impart an effect that destroyed them and

we could eliminate it

significantly reducing transmissibility

of the pathogen and that’s what we’re

focusing on now because

we have an obligation and a vision

we believe that frontline workers

need better safety and they shouldn’t be

scared when they go into work

and we think that we have the research

that could help improve this situation

or those in nursing homes can see their

families again because we could create

mechanisms to safeguard them

no one should feel unsafe at work but if

we could improve

the way that we protect our employees

the world could get back to operating

potentially returning to some sense of

normalcy

we might go out to dinner again

doing things a different way using the

research

that was available and thinking

a little differently maybe drawing some

experience from a nano material

or listening to a million-year-old

blue-blooded arthropod

we’ll get back to traveling seeing the

places

helping those areas that rely on tourism

and bringing the world back together

the goal here in this talk is to inspire

everyone you’re going to be met

with a lot of challenges

i am embrace the risk and i hope that

you will too

take on the risk embrace every new

opportunity

whether it was going from forage fish to

horseshoe crabs

all the way down to antimicrobial

substances that could help

in a pandemic stay motivated

and embrace every risk in every

opportunity

scholastically and thoughtfully thank

you

所以今天我要告诉你一个

关于我从学术界到

企业的演变的小故事

,他的故事就像任何其他故事一样开始

在实验室里典型的一天和

在海滩上鼓舞人心的散步

可能并不完全像每个故事,但

不用说 我是

纳米科学和纳米工程联合学院的一名研究生,

正在研究富勒烯

准备我的论文,当我

接到一位老朋友和一位行业

合作者

的电话时,他们在电话中对我说

安东尼,我们需要弄清楚一些事情

关于饲料鱼和这个钓鱼

问题

我不知道他那天在说什么

但是我们在电话上花了很多时间

讨论饲料鱼

我会告诉你一些关于

这条鱼的饲料鱼

是小型鱼群他们 “油腻,

我们通常使用大网通过负载捕获它们,

它们对我们所有的海洋都非常重要,

因为它们构成了它们转移的所有海洋营养的支柱

来自浮游生物的能量

进入食物链上游

所以海洋中的所有鱼类都依赖

这些 我们所有飞

入海洋的海鸟都依赖这些

鱼 我们的沿海哺乳动物和其他

动物都依赖这些鱼

提出的挑战

那天我在电话里说

他们的利用是

不可持续的,从

历史上看,我们认为这些鱼是

无限的,

但随着时间的推移,多个

行业

开始把手

伸进饲料鱼饼干罐中,

我们用这些鱼来喂养我们的养殖

鱼类

水产养殖,因为他们制作这些

对我们来说健康的鱼

我们也吃这些鱼 我们

从它们的鱼油中提取这些鱼作为维生素补充剂

它们也被磨碎并

作为农业饲料喂给我们的稗动物

甚至我们的伴侣小猫也吃

它们 在我们的猫粮中,

但我要开始我的旅程,我

今天和你

谈谈它们作为诱饵的用途,

所以每年大约有 40% 的

我们在海洋

中捕获的所有鱼类都是这些小群鱼,

它们的脖子很容易被捕获以捕获

大量它们

大约 1800 万吨这些鱼

习惯于诱饵,因此我们使用鱼来

捕捉鱼

和 这就是

关于我们如何创造

更可持续的东西的对话,因为

所有这些行业的利用

太多了,现在

它开始影响海洋,

它也开始影响

渔业社区的沿海活力,

他们需要解决方案和

用于捕获这些鱼

的方法并不好 这些大网

横穿海底,

刮擦和破坏地板和

珊瑚,它们还不分

青红皂白地捕捉其他动物并将

它们困在网中,

因此作为一名科学家,

我们设计了策略和 我们

进入实验室

,研发过程从那里开始,

我们要做的

是弄清楚为什么甲壳类动物会被

一个叫做 bei 的陷阱所吸引。

用这些饲料

鱼作为诱饵

似乎很简单

,我们手头有所有工具,

我们需要做的就是弄清楚

甲壳类动物为什么会

带着饲料鱼进入陷阱,我们必须识别从饲料鱼

释放的单个分子

当鱼坐在陷阱中时,

我们使用

高效液相色谱法

和掩膜

光谱仪等技术来识别

这些鱼

在陷阱中游走

并降低甲壳类动物时发出的单个分子,

我们发现了很多分子,我们

能够阐明

哪种分子组合对将

这些物种引诱到陷阱中产生最深远的影响

,我们真的认为我们已经

接近完成,

但随后我们必须弄清楚如何

使

矩阵成为适应所有捕鱼的矩阵

社区

因为钓鱼在不同地方有很大不同 在

某些地方可能会缩短几天 在其他地方可能

会缩短两周 r 地点

和温度的变化,因此我们必须

适应行业,以便

能够成功

部署替代诱饵,可以

将可持续性

和活力带回该行业,

因此我们在组织的幸运帮助下设计了几个不同的

矩阵

如 国家科学

基金会

和北卡罗来纳海

授予我们在

纳米科学和纳米工程联合学校可用的基础设施,

我们能够提出一种

替代的合成和可持续

捕鱼方法,而无需

使用

鱼类和 这是行业

需要的东西,所以当我们与行业会面

时,我们必须将一些东西

融入这个想法,

不仅是可行的东西,而且我们

必须解决沿途的一些痛苦

,研究必须致力于

创造一个

不需要冷藏或

储存的诱饵

,它很稳定,很容易

使用 它可以吸引螃蟹和龙虾,

并且可以始终如一地使用并

与他们已经使用的东西竞争,他们

兴奋,我们也很兴奋

,然后我又接到了另一个电话

,在这一天,另一端的人

说你的诱饵有用吗

东北部的鳗鱼和鳗鱼 鳗鱼

和鳗鱼很常见,

老实说,我不知道

这个问题的答案,但当时我有两个

本科生,我

告诉他们

调查一下

,第二天早上他们进来

说安东尼

它比诱饵大 它的鲎

鲎 鲎 嗯 鲎

是这个行业使用的

诱饵

但我们了解到

鲎对社会的价值

是巨大的 如果我要告诉

鲎的血怎么办

影响了每个听这个的人

,它被认为是

地球上最珍贵的液体之一,

每加仑大约六万

美元你相信我吗? 如果我告诉你

他们的血液是蓝色的,

那么让我告诉你一些关于

这种来自这种

古老节肢动物的独特血液的信息 马蹄蟹

在地球上所有的大灭绝中幸存下来它是一个

非常有弹性的有机体

,在它的蓝色血液中是一个单一的

循环 细胞类型

它被称为变形虫位点,在

该变形虫苹果酒蛋白中,当革兰氏阴性细菌存在这些变形虫时

,这些蛋白质与革兰氏阴性细菌相互作用,

形成凝胶凝块

,为什么这对我们很重要是

因为

这个 方法成为被批准的方法

和理想的方法,

以确保

注射到我们体内的任何东西

在这些日子里可能更及时

一种

我们目前在全球范围内开发的一百二十种疫苗

一种可能植入

我们

所有人的仪器 这些东西中的一部分是

通过这个古老的马蹄蟹

细胞阿米巴原虫部位控制的,

但正如我提到的那样 这是一个问题,

我们的海岸线正在发生变化,它们正在被

侵蚀,这是

马蹄蟹

产卵的区域,而我们的海洋正在

发生变化,

我已经提到它们被

用作诱饵,但另一个挑战是它们的

利用

并为我们提供质量控制

测量

现在我们去海滩

收集螃蟹,然后把它们带回一个

设施

,它们的血量大约是它们的三分之一

,然后及时

它们被重新部署

,这个过程可能需要一两天

或三天

,而且 对这些动物来说可能是一个挑战,

所以我们想,嗯,如果我们可以对

它们进行水产养殖,这

听起来对现代医学和重要物种来说都是一个很好的机会,

所以这正是我们所做的,我们

回到了

国家科学基金会

的所有朋友那里, 我们进行有机诱饵

研究 我们回到

北卡罗来纳州海 拨款

我们联系了我们认识的每个人,

我们

决定证明我们可以做马蹄铁 c rab

水产养殖

将能够培育这些

螃蟹并将这些螃蟹维持在

靠近您采集它们

血液的原始环境中,您可以

确保它们的环境得到管理、

安全和优化

,我们要做的就是为它们提供

您可以确保

它们健康的最佳饲料

,我们的目标是能够

消除对野生捕捞的需要,

保护该物种并维持

该物种对

现代医学的巨大捐赠

需要一些时间,但我们得到了

在北卡罗来纳州,我们有马蹄

蟹,

它们吃一些你能想象到的最好的功能性

饲料

,我们相信他们可以

根据这项研究继续做出贡献,

但我们真的没有在那里完成,因为

我们有一个新的机会,

你看 变形虫部位和 lal

在人类

医学中总是有机会,但

由于抑制剂或 干扰,

所以我们开始证明,因为我们

现在已经证明我们可以养殖

并且我们可以可持续地无限供应

lal

我们可以使用它来优化

我们在医院中检测患者细菌的方式,

因为这 是一个大问题

,没有多少伟大的

仪器可以做到这一点,

而且很多时候,当你知道

它时,可能为时已

晚,细菌已经使系统负担过重

,患者已经陷入败血症

,这是导致脓毒症的头号原因

在医院过早死亡,

所以我们认为我们可以消除

与当前方法相关的这个

问题 一个有意义的影响

,就在我们到达那里时,我们

是如此接近,

我们确切地发现了我们需要的东西,

我们已经准备好继续前进

,突然间我们的世界

我们遇到了病毒大流行

,世界的

结构

被破坏了我们做每一件事的方式,

但我们还没有准备好停止任何我们

正在做的事情,我们想做的是

利用我们所知道的

和 弄清楚我们现在如何将其

应用于这种情况,因为我们知道

我们将回到这些其他

事情上,但我们

对社会上强加的这些新风险负有道德义务,

因此我们在此过程中学到了很多

关于 马蹄蟹,但更

重要的是,马蹄蟹教会了

我们很多关于

病原体的知识,以便进行

研究

,以了解病原体

在处理新病毒时的行为方式

螃蟹教会了我们

以及我们对纳米科学的理解,

如果我们能够创造

出一种急需的原子级抗菌剂

,并且可以

解决很多问题 与当前的大流行相关的是,

我们发现了富勒烯,它是一种

纳米级分子

,大小约为 1 纳米,

比病毒小 120 倍

,可以进行特殊功能化以

产生巨大的抗菌作用

,我们考虑如何将

其应用于当前情况

我们查看了

与当前情况相关的缺点

,我们今天戴的口罩很好,

但它们主要用作

防护服,

防止某些东西

通过它是一种尺寸过滤,

我们认为还可以,我们可能会在

这里

使用马蹄铁废话教给我们的改进

使用我们对富勒烯的

了解 使用我们对原子尺度

相互作用的了解

我们还研究了其他

可以改进

的领域 我们穿的衣服 脚上的短靴

实验室外套 医生涂

在床单上 室内装潢

医院

里的织物 这些病原体

被发现的

地方 如果我们有办法 使它们具有

生物活性,

使它们具有吸引病原体的能力

,而不仅仅是

使它们具有破坏它们的效果,

我们可以消除它,从而

显着

降低病原体的传播能力,这就是我们

现在关注的重点,因为

我们有义务和 愿景

我们认为一线工人

需要更好的安全性,

他们在上班时不应该害怕

,我们认为我们的

研究可以帮助改善这种情况,

或者养老院的人可以再次见到他们的

家人,因为我们可以创建

机制 为了保护他们,

任何人都不应该在工作中感到不安全,但如果

我们能够改进

保护员工的方式,

世界就可以恢复运营,

可能会恢复到某种

正常状态,

我们可能会再次出去吃饭,

以不同的方式使用

可用的研究和思考方式

略有不同,可能

从纳米材料中汲取一些经验

或聆听一百万 -岁的

蓝血节肢动物,

我们将重返旅行,看看

那些帮助那些依赖旅游业的地区

并使世界重新团结起来

的地方本次演讲的目标是激励

每个你将

遇到的人 许多挑战

我接受风险,我希望

你也

承担风险拥抱每一个新的

机会,

无论是从饲料鱼到

马蹄蟹

,一直到

可以

帮助大流行的抗菌物质,保持积极性

和拥抱 每一个机会中的每一个风险

学术和深思熟虑 谢谢