TED2015
Joseph DeSimone: What if 3D printing was 100x faster?
Džo Desimon (Joe DeSimone): Šta kada bi 3D štampanje bilo 100 puta brže?
Filmed:
Readability: 4.9
3,783,429 views
Kako kaže Džo Desimon, ono što mi zamišljamo kao 3D štampanje je zapravo 2D štampanje, iznova i iznova... polako. Na sceni TED2015, on otkriva smelu novu tehniku, nadahnutu filmom "Termintator 2", koja je 25 do 100 puta brža i stvara glatke, snažne delove. Da li bi to pomoglo da se konačno ispuni ogromno obećanje 3D štampe?
Joseph DeSimone - Chemist, inventor
The CEO of Carbon3D, Joseph DeSimone has made breakthrough contributions to the field of 3D printing. Full bio
The CEO of Carbon3D, Joseph DeSimone has made breakthrough contributions to the field of 3D printing. Full bio
Double-click the English transcript below to play the video.
00:12
I'm thrilled to be here tonight
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Uzbuđen sam što sam ovde večeras
00:14
to share with you something
we've been working on
we've been working on
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da bih sa vama podelio nešto
na čemu radimo
na čemu radimo
00:17
for over two years,
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preko dve godine,
00:19
and it's in the area
of additive manufacturing,
of additive manufacturing,
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a to je u polju proizvodnje aditiva,
00:21
also known as 3D printing.
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poznatije kao 3D štampanje.
00:24
You see this object here.
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Vidite ovaj predmet.
00:26
It looks fairly simple,
but it's quite complex at the same time.
but it's quite complex at the same time.
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Izgleda prilično jednostavno,
ali je u isto vreme kompleksan.
ali je u isto vreme kompleksan.
00:30
It's a set of concentric
geodesic structures
geodesic structures
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To je niz koncentričnih
geodezijskih struktura
geodezijskih struktura
00:33
with linkages between each one.
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sa vezama između sebe.
00:36
In its context, it is not manufacturable
by traditional manufacturing techniques.
by traditional manufacturing techniques.
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U svom kontekstu, nije ga moguće
proizvesti tradicionalnim tehnikama.
proizvesti tradicionalnim tehnikama.
00:43
It has a symmetry such
that you can't injection mold it.
that you can't injection mold it.
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Poseduje takvu simetriju da se ne može
dobiti ubrizgavanjem u kalup.
dobiti ubrizgavanjem u kalup.
00:47
You can't even manufacture it
through milling.
through milling.
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Čak se ne može dobiti
izradom na glodalici.
izradom na glodalici.
00:51
This is a job for a 3D printer,
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Ovo je posao za 3D štampač,
00:54
but most 3D printers would take between
three and 10 hours to fabricate it,
three and 10 hours to fabricate it,
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ali većini 3D štampača bi bilo potrebno
između tri i deset sati da ga naprave,
između tri i deset sati da ga naprave,
00:58
and we're going to take the risk tonight
to try to fabricate it onstage
to try to fabricate it onstage
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a mi ćemo večeras rizikovati da probamo
da ga napravimo na sceni
da ga napravimo na sceni
01:02
during this 10-minute talk.
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tokom ovog govora od 10 minuta.
01:05
Wish us luck.
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Poželite nam sreću.
01:08
Now, 3D printing is actually a misnomer.
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"3D štampanje" je zapravo pogrešan naziv.
01:11
It's actually 2D printing
over and over again,
over and over again,
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To je zapravo 2D štampanje,
iznova i iznova
iznova i iznova
01:15
and it in fact uses the technologies
associated with 2D printing.
associated with 2D printing.
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i zapravo koristi tehnologije
povezane sa 2D štampanjem.
povezane sa 2D štampanjem.
01:20
Think about inkjet printing where you
lay down ink on a page to make letters,
lay down ink on a page to make letters,
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Pomislite na štampanje mastilom gde
na list stavite mastilo da dobijete slova,
na list stavite mastilo da dobijete slova,
01:25
and then do that over and over again
to build up a three-dimensional object.
to build up a three-dimensional object.
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i onda to radite iznova i iznova
kako bi se dobio trodimenzionalni objekat.
kako bi se dobio trodimenzionalni objekat.
01:30
In microelectronics, they use something
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U mikroelektronici, koristi se nešto
što se zove litografija,
kako bi se uradilo isto to,
kako bi se uradilo isto to,
01:32
called lithography to do
the same sort of thing,
the same sort of thing,
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01:34
to make the transistors
and integrated circuits
and integrated circuits
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kako bi se napravili tranzistori
i integrisana kola
i integrisana kola
01:36
and build up a structure several times.
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i napravila struktura nekoliko puta.
01:38
These are all 2D printing technologies.
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Ovo su sve tehnologije 2D štampanja.
01:42
Now, I'm a chemist,
a material scientist too,
a material scientist too,
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Ja sam hemičar, znači da sam i ja
materijalni naučnik
materijalni naučnik
01:45
and my co-inventors
are also material scientists,
are also material scientists,
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a moji saradnici su takođe
materijalni naučnici,
materijalni naučnici,
01:48
one a chemist, one a physicist,
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jedan je hemičar, jedan je fizičar
01:51
and we began to be
interested in 3D printing.
interested in 3D printing.
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i počelo je da nas interesuje
3D štampanje.
3D štampanje.
01:53
And very often, as you know,
new ideas are often simple connections
new ideas are often simple connections
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Kao što znate, nove ideje su veoma često
jednostavne veze
jednostavne veze
01:59
between people with different experiences
in different communities,
in different communities,
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između ljudi sa različitim iskustvima
iz različitih zajednica,
iz različitih zajednica,
02:03
and that's our story.
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i to je naša priča.
02:05
Now, we were inspired
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Inspirisala nas je scena
02:08
by the "Terminator 2" scene for T-1000,
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iz "Terminatora 2" sa T-1000
02:12
and we thought, why couldn't a 3D printer
operate in this fashion,
operate in this fashion,
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i pomislili smo, zašto 3D štampač
ne bi ovako funkcionisao,
ne bi ovako funkcionisao,
02:18
where you have an object
arise out of a puddle
arise out of a puddle
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gde bi se predmet podizao iz barice
02:23
in essentially real time
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u suštini u realnom vremenu
02:25
with essentially no waste
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bez ikakvog otpada
02:27
to make a great object?
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kako bi nastao sjajan predmet.
02:30
Okay, just like the movies.
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Baš kao u filmovima.
02:31
And could we be inspired by Hollywood
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Možemo li biti inspirisani Holivudom
02:34
and come up with ways
to actually try to get this to work?
to actually try to get this to work?
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i smisliti načine da zapravo pokušamo
da nateramo ovo da radi?
da nateramo ovo da radi?
02:38
And that was our challenge.
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To je bio naš izazov.
02:40
And our approach would be,
if we could do this,
if we could do this,
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Naš pristup je bio,
ako bismo mogli da uradimo ovo,
ako bismo mogli da uradimo ovo,
02:43
then we could fundamentally address
the three issues holding back 3D printing
the three issues holding back 3D printing
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onda bismo mogli da u osnovi rešimo
tri problema koja sputavaju 3D štampanje
tri problema koja sputavaju 3D štampanje
02:47
from being a manufacturing process.
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da bude proces proizvodnje.
02:50
One, 3D printing takes forever.
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Prvi je to što 3D štampanje traje večno.
02:52
There are mushrooms that grow faster
than 3D printed parts. (Laughter)
than 3D printed parts. (Laughter)
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Postoje pečurke koje rastu brže
od delova koji se štampaju u 3D. (Smeh)
od delova koji se štampaju u 3D. (Smeh)
02:59
The layer by layer process
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Proces sloja po sloj
03:01
leads to defects
in mechanical properties,
in mechanical properties,
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dovodi do defekata
u mehaničkim svojstvima
u mehaničkim svojstvima
03:04
and if we could grow continuously,
we could eliminate those defects.
we could eliminate those defects.
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a ukoliko bismo "uzgajali" bez prekida
mogli bismo i da uklonimo te defekte.
mogli bismo i da uklonimo te defekte.
03:08
And in fact, if we could grow really fast,
we could also start using materials
we could also start using materials
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Zapravo, kada bismo veoma brzo "uzgajali",
mogli bismo da počnemo da koristimo
mogli bismo da počnemo da koristimo
03:13
that are self-curing,
and we could have amazing properties.
and we could have amazing properties.
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materijale koji se sami suše,
mogli bismo da imamo neverovatna svojstva.
mogli bismo da imamo neverovatna svojstva.
03:18
So if we could pull this off,
imitate Hollywood,
imitate Hollywood,
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Kada bismo mogli da izvedemo ovo,
da imitiramo Holivud,
da imitiramo Holivud,
03:22
we could in fact address 3D manufacturing.
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mogli bismo da rešimo 3D proizvodnju.
03:26
Our approach is to use
some standard knowledge
some standard knowledge
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Naš pristup je do koristimo
neka osnovna znanja
neka osnovna znanja
03:29
in polymer chemistry
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iz hemije polimera
03:32
to harness light and oxygen
to grow parts continuously.
to grow parts continuously.
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kako bismo koristili svetlost i kiseonik
da neprestano "uzgajamo" delove.
da neprestano "uzgajamo" delove.
03:39
Light and oxygen work in different ways.
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Svetlost i kiseonik funkcionišu
na različite načine.
na različite načine.
03:42
Light can take a resin
and convert it to a solid,
and convert it to a solid,
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Svetlost može smolu da pretvori
u čvrstu materiju,
u čvrstu materiju,
03:45
can convert a liquid to a solid.
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tečnost u čvrstu materiju.
03:47
Oxygen inhibits that process.
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Kiseonik usporava taj proces.
03:50
So light and oxygen
are polar opposites from one another
are polar opposites from one another
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Tako su svetlost i kiseonik
polarno suprotni
polarno suprotni
03:54
from a chemical point of view,
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sa hemijske tačke gledišta
03:56
and if we can control spatially
the light and oxygen,
the light and oxygen,
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i ako prostorno možemo da kontrolišemo
svetlost i kiseonik,
svetlost i kiseonik,
04:00
we could control this process.
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mogli bismo da kontrolišemo ovaj proces.
04:02
And we refer to this as CLIP.
[Continuous Liquid Interface Production.]
[Continuous Liquid Interface Production.]
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Ovo nazivamo PSIT.
[Produkcija stalnog interfejsa tečnosti]
[Produkcija stalnog interfejsa tečnosti]
04:05
It has three functional components.
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Ima tri funkcionalne komponente.
04:08
One, it has a reservoir
that holds the puddle,
that holds the puddle,
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Prvo, ima rezervoar u kom je barica,
04:12
just like the T-1000.
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baš kao T-1000.
04:14
At the bottom of the reservoir
is a special window.
is a special window.
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Na dnu rezervoara je poseban prozor.
04:16
I'll come back to that.
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Vratiću se na to.
04:18
In addition, it has a stage
that will lower into the puddle
that will lower into the puddle
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Pored toga, ima i skelu
koja se spušta u baricu
koja se spušta u baricu
04:21
and pull the object out of the liquid.
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i izvlači predmet iz tečnosti.
04:24
The third component
is a digital light projection system
is a digital light projection system
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Treća komponenta je sistem
za digitalnu projekciju svetla
za digitalnu projekciju svetla
04:28
underneath the reservoir,
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ispod rezervoara,
04:30
illuminating with light
in the ultraviolet region.
in the ultraviolet region.
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koji emituje svetlost
u ultraljubičastom regionu.
u ultraljubičastom regionu.
04:34
Now, the key is that this window
in the bottom of this reservoir,
in the bottom of this reservoir,
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Ključno je da je ovaj prozor
na dnu rezervoara,
na dnu rezervoara,
04:37
it's a composite,
it's a very special window.
it's a very special window.
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to je kompozitni materijal
i veoma poseban prozor.
i veoma poseban prozor.
04:40
It's not only transparent to light
but it's permeable to oxygen.
but it's permeable to oxygen.
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Ne samo da je transparentan na svetlo
već je i propustljiv na kiseonik.
već je i propustljiv na kiseonik.
04:43
It's got characteristics
like a contact lens.
like a contact lens.
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Ima karakteristike kao kontaktno sočivo.
04:47
So we can see how the process works.
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Možemo videti kako se odvija proces.
04:49
You can start to see that
as you lower a stage in there,
as you lower a stage in there,
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Možete videti da kako spuštate skelu,
04:53
in a traditional process,
with an oxygen-impermeable window,
with an oxygen-impermeable window,
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u tradicionalnom procesu
sa prozorom kroz koji prodire kiseonik,
sa prozorom kroz koji prodire kiseonik,
04:57
you make a two-dimensional pattern
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pravi se dvodimenzionalni šablon
05:00
and you end up gluing that onto the window
with a traditional window,
with a traditional window,
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i na kraju to zalepite za prozor
sa tradicionanim prozorom,
sa tradicionanim prozorom,
05:03
and so in order to introduce
the next layer, you have to separate it,
the next layer, you have to separate it,
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a kako bi se uveo novi sloj,
morate da ga odvojite,
morate da ga odvojite,
05:06
introduce new resin, reposition it,
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uvedete novu smolu, premestite je
05:10
and do this process over and over again.
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i ponovite ovaj proces
iznova i iznova.
iznova i iznova.
05:13
But with our very special window,
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Ali sa našim posebnim prozorom,
05:15
what we're able to do is,
with oxygen coming through the bottom
with oxygen coming through the bottom
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sa kiseonikom koji dolazi odozdo,
05:18
as light hits it,
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kako ga dodiruje svetlost,
05:21
that oxygen inhibits the reaction,
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taj kiseonik usporava reakciju
05:23
and we form a dead zone.
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i možemo da stvorimo mrtvu zonu.
05:26
This dead zone is on the order
of tens of microns thick,
of tens of microns thick,
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Mrtva zona je debela po redu
desetina mikrona,
desetina mikrona,
05:30
so that's two or three diameters
of a red blood cell,
of a red blood cell,
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to je dva ili tri prečnika ćelije
crvenog krvnog zrnca,
crvenog krvnog zrnca,
05:34
right at the window interface
that remains a liquid,
that remains a liquid,
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baš na interfejsu prozora
koji ostaje u tečnom stanju
koji ostaje u tečnom stanju
05:36
and we pull this object up,
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i ovaj predmet dižemo
05:38
and as we talked about in a Science paper,
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i kao što smo rekli u svom naučnom radu,
05:40
as we change the oxygen content,
we can change the dead zone thickness.
we can change the dead zone thickness.
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kako menjamo sadržaj kiseonika,
možemo da menjamo debljinu mrtve zone.
možemo da menjamo debljinu mrtve zone.
05:45
And so we have a number of key variables
that we control: oxygen content,
that we control: oxygen content,
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Postoji nekoliko ključnih varijabli
koje kontrolišemo: sadržaj kiseonika,
koje kontrolišemo: sadržaj kiseonika,
05:49
the light, the light intensity,
the dose to cure,
the dose to cure,
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svetlost, intenzitet svetla,
doza koju treba osušiti,
doza koju treba osušiti,
05:52
the viscosity, the geometry,
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viskoznost, geometrija
05:54
and we use very sophisticated software
to control this process.
to control this process.
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i koristimo veoma sofisticiran softver
da bismo kontrolisali ovaj proces.
da bismo kontrolisali ovaj proces.
05:58
The result is pretty staggering.
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Rezultat je zapanjujući.
06:01
It's 25 to 100 times faster
than traditional 3D printers,
than traditional 3D printers,
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25 do 100 puta je brže
od tradicionalnih 3D štampača,
od tradicionalnih 3D štampača,
06:06
which is game-changing.
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što potpuno menja igru.
06:08
In addition, as our ability
to deliver liquid to that interface,
to deliver liquid to that interface,
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Pored te mogućnosti
dostavljanja tečnosti na interfejs,
dostavljanja tečnosti na interfejs,
06:12
we can go 1,000 times faster I believe,
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možemo da idemo 1000 puta brže
06:16
and that in fact opens up the opportunity
for generating a lot of heat,
for generating a lot of heat,
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i to otvara mogućnosti
za stvaranje dosta toplote,
za stvaranje dosta toplote,
06:19
and as a chemical engineer,
I get very excited at heat transfer
I get very excited at heat transfer
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a kao hemijski inženjer, veoma se uzbudim
zbog prenosa toplote
zbog prenosa toplote
06:23
and the idea that we might one day
have water-cooled 3D printers,
have water-cooled 3D printers,
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i zamisli da jednog dana možemo imati
3D štampače sa vodenim hlađenjem
3D štampače sa vodenim hlađenjem
06:28
because they're going so fast.
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jer će ići tako brzo.
06:30
In addition, because we're growing things,
we eliminate the layers,
we eliminate the layers,
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Pored toga, zato što "uzgajamo" predmete,
eliminišu se slojevi
eliminišu se slojevi
06:34
and the parts are monolithic.
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i delovi su monolitni.
06:36
You don't see the surface structure.
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Ne vidite površinsku strukturu.
06:38
You have molecularly smooth surfaces.
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Imate površine koje su glatke
na molekularnom nivou.
na molekularnom nivou.
06:41
And the mechanical properties
of most parts made in a 3D printer
of most parts made in a 3D printer
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Mehanička svojstva većine delova
koji su nastali u 3D štampaču
koji su nastali u 3D štampaču
06:45
are notorious for having properties
that depend on the orientation
that depend on the orientation
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na zlom su glasu zbog svojstava
koji zavise od pravca
koji zavise od pravca
06:49
with which how you printed it,
because of the layer-like structure.
because of the layer-like structure.
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u kom ih štampate,
zbog strukture nalik na slojeve.
zbog strukture nalik na slojeve.
06:53
But when you grow objects like this,
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Ali kada ovako "uzgajate" predmete,
06:55
the properties are invariant
with the print direction.
with the print direction.
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svojstva ne zavise od pravca štampanja.
06:59
These look like injection-molded parts,
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Ovi delovi izgledaju kao da su
nastali ubacivanjem u kalupe,
nastali ubacivanjem u kalupe,
07:02
which is very different
than traditional 3D manufacturing.
than traditional 3D manufacturing.
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što je umnogome drugačije
od tradicionalnog 3D štampanja.
od tradicionalnog 3D štampanja.
07:05
In addition, we're able to throw
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Pored toga, možemo da primenimo
07:09
the entire polymer
chemistry textbook at this,
chemistry textbook at this,
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ceo udžbenik hemije polimera
07:12
and we're able to design chemistries
that can give rise to the properties
that can give rise to the properties
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i možemo da osmislimo hemije
koje mogu da dovedu do izražaja
koje mogu da dovedu do izražaja
07:16
you really want in a 3D-printed object.
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svojstva koja zaista želite
u 3D odštampanom proizvodu.
u 3D odštampanom proizvodu.
07:19
(Applause)
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(Aplauz)
07:21
There it is. That's great.
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Eto ga. To je sjajno.
07:26
You always take the risk that something
like this won't work onstage, right?
like this won't work onstage, right?
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Uvek rizikujete da ovako nešto
neće raditi na sceni, zar ne?
neće raditi na sceni, zar ne?
07:30
But we can have materials
with great mechanical properties.
with great mechanical properties.
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Ali možemo da imamo materijale
sa sjajnim mehaničkim svojstvima.
sa sjajnim mehaničkim svojstvima.
07:33
For the first time, we can have elastomers
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Po prvi put, možemo imati elastomere
07:35
that are high elasticity
or high dampening.
or high dampening.
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sa visokim elasticitetom i prigušenjem.
07:37
Think about vibration control
or great sneakers, for example.
or great sneakers, for example.
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Pomislite na kontrolu vibracija
ili odlične patike, na primer.
ili odlične patike, na primer.
07:41
We can make materials
that have incredible strength,
that have incredible strength,
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Možemo da napravimo materijale
sa neverovatnom snagom,
sa neverovatnom snagom,
07:44
high strength-to-weight ratio,
really strong materials,
really strong materials,
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visokim odnosom snage po težini,
zaista snažne materijale,
zaista snažne materijale,
07:48
really great elastomers,
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zaista sjajne elastomere,
07:50
so throw that in the audience there.
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pa bacite to u publiku.
07:53
So great material properties.
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Sjajna svojstva materijala.
07:55
And so the opportunity now,
if you actually make a part
if you actually make a part
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Sada je prilika,
da ako zapravo napravite deo
da ako zapravo napravite deo
07:59
that has the properties
to be a final part,
to be a final part,
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koji ima svojstva da bude konačan deo
08:02
and you do it in game-changing speeds,
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i to uradite sa revolucionarnom brzinom,
08:06
you can actually transform manufacturing.
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možete transformisati proizvodnju.
08:08
Right now, in manufacturing,
what happens is,
what happens is,
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Sada se u proizvodnji dešava
08:11
the so-called digital thread
in digital manufacturing.
in digital manufacturing.
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takozvana digitalna nit
u digitalnoj proizvodnji.
u digitalnoj proizvodnji.
08:14
We go from a CAD drawing, a design,
to a prototype to manufacturing.
to a prototype to manufacturing.
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Ide se sa CAD nacrta, dizajna,
na prototip, pa na proizvodnju.
na prototip, pa na proizvodnju.
08:19
Often, the digital thread is broken
right at prototype,
right at prototype,
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Često se digitalna nit prekida
odmah kod prototipa
odmah kod prototipa
08:22
because you can't go
all the way to manufacturing
all the way to manufacturing
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jer ne možete da odete do proizvodnje
08:24
because most parts don't have
the properties to be a final part.
the properties to be a final part.
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jer većina delova nema svojstva
da bude konačni deo.
da bude konačni deo.
08:28
We now can connect the digital thread
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Sada možemo povezati digitalnu nit
08:30
all the way from design
to prototyping to manufacturing,
to prototyping to manufacturing,
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sve od dizajna, preko prototipa,
do proizvodnje,
do proizvodnje,
08:35
and that opportunity
really opens up all sorts of things,
really opens up all sorts of things,
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i to zaista otvara mogućnosti
za mnogo toga,
za mnogo toga,
08:38
from better fuel-efficient cars
dealing with great lattice properties
dealing with great lattice properties
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od automobila sa boljom ekonomijom goriva
gde se radi o boljim svojstvima rešetke
gde se radi o boljim svojstvima rešetke
08:43
with high strength-to-weight ratio,
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sa boljim odnosom snage i težine,
08:45
new turbine blades,
all sorts of wonderful things.
all sorts of wonderful things.
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novim perajima turbine,
mnogo divnih stvari.
mnogo divnih stvari.
08:49
Think about if you need a stent
in an emergency situation,
in an emergency situation,
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Pomislite da vam treba stent
u hitnoj situaciji,
u hitnoj situaciji,
08:54
instead of the doctor pulling off
a stent out of the shelf
a stent out of the shelf
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umesto da doktor uzima stent sa police
08:58
that was just standard sizes,
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u standardnoj veličini,
09:00
having a stent that's designed
for you, for your own anatomy
for you, for your own anatomy
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možete imati stent dizajniran za vas,
za vašu anatomiju
za vašu anatomiju
09:04
with your own tributaries,
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po vašem krvotoku
09:06
printed in an emergency situation
in real time out of the properties
in real time out of the properties
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koji se štampa u hitnoj situaciji
u stvarnom vremenu od svojstava
u stvarnom vremenu od svojstava
09:10
such that the stent could go away
after 18 months: really-game changing.
after 18 months: really-game changing.
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tako da stent može da se skloni
nakon 18 meseci - zaista revolucionarno.
nakon 18 meseci - zaista revolucionarno.
09:13
Or digital dentistry, and making
these kinds of structures
these kinds of structures
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Ili digitalno zubarstvo
i pravljenje ovakvih struktura
i pravljenje ovakvih struktura
09:17
even while you're in the dentist chair.
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čak dok ste u stolici kod zubara.
09:20
And look at the structures
that my students are making
that my students are making
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Pogledajte strukture koje pravimo
ja i moji učenici
ja i moji učenici
09:23
at the University of North Carolina.
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na Univerzitetu Severne Karoline.
09:25
These are amazing microscale structures.
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Ovo su neverovatne strukture
na mikro skali.
na mikro skali.
09:28
You know, the world is really good
at nano-fabrication.
at nano-fabrication.
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Svet je zaista dobar u nano-proizvodnji.
09:31
Moore's Law has driven things
from 10 microns and below.
from 10 microns and below.
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Murov zakon je doveo stvari
do nivoa od 10 mikrona i ispod.
do nivoa od 10 mikrona i ispod.
09:35
We're really good at that,
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Zaista smo dobri u tome
09:37
but it's actually very hard to make things
from 10 microns to 1,000 microns,
from 10 microns to 1,000 microns,
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ali zapravo je veoma teško
napraviti stvari od 10 do 1000 mikrona,
napraviti stvari od 10 do 1000 mikrona,
09:41
the mesoscale.
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to je mezoskala.
09:43
And subtractive techniques
from the silicon industry
from the silicon industry
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Suptraktivne tehnike
iz industrije silikona
iz industrije silikona
to ne mogu da rade veoma dobro.
09:46
can't do that very well.
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Ne mogu tako dobro da graviraju oblande.
09:47
They can't etch wafers that well.
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09:49
But this process is so gentle,
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Ali ovaj proces je tako nežan
09:51
we can grow these objects
up from the bottom
up from the bottom
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da možemo da "uzgajamo" ove predmete
od samog početka
od samog početka
09:53
using additive manufacturing
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koristeći aditivnu proizvodnju
09:55
and make amazing things
in tens of seconds,
in tens of seconds,
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i da pravimo neverovatne stvari
za desetine sekundi,
za desetine sekundi,
09:57
opening up new sensor technologies,
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otvarajući nove tehnologije senzora,
09:59
new drug delivery techniques,
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nove tehnike dostave lekova,
10:02
new lab-on-a-chip applications,
really game-changing stuff.
really game-changing stuff.
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nove primene laboratorija na čipu,
zaista revolucionarne stvari.
zaista revolucionarne stvari.
10:07
So the opportunity of making
a part in real time
a part in real time
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Prilika da se u realnom vremenu
stvara deo
stvara deo
10:11
that has the properties to be a final part
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koji ima svojstva konačnog dela
10:14
really opens up 3D manufacturing,
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zaista otvara 3D proizvodnju
10:17
and for us, this is very exciting,
because this really is owning
because this really is owning
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i ovo je za nas veoma uzbudljivo
jer je ovo zaista posedovanje
jer je ovo zaista posedovanje
10:20
the intersection between hardware,
software and molecular science,
software and molecular science,
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preseka između hardvera, softvera
i molekularne nauke
i molekularne nauke
10:27
and I can't wait to see what designers
and engineers around the world
and engineers around the world
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i jedva čekam da vidim
šta će sa ovom alatkom moći da urade
šta će sa ovom alatkom moći da urade
10:31
are going to be able to do
with this great tool.
with this great tool.
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dizajneri i naučnici širom sveta.
10:34
Thanks for listening.
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Hvala na slušanju.
10:36
(Applause)
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(Aplauz)
ABOUT THE SPEAKER
Joseph DeSimone - Chemist, inventorThe CEO of Carbon3D, Joseph DeSimone has made breakthrough contributions to the field of 3D printing.
Why you should listen
Joseph DeSimone is a scholar, inventor and serial entrepreneur. A longtime professor at UNC-Chapel Hill, he's taken leave to become the CEO at Carbon3D, the Silicon Valley 3D printing company he co-founded in 2013. DeSimone, an innovative polymer chemist, has made breakthrough contributions in fluoropolymer synthesis, colloid science, nano-biomaterials, green chemistry and most recently 3D printing. His company's Continuous Liquid Interface Production (CLIP) suggests a breakthrough way to make 3D parts.
Read the paper in Science. Authors: John R. Tumbleston, David Shirvanyants, , Nikita Ermoshkin, Rima Janusziewicz, Ashley R. Johnson, David Kelly, Kai Chen, Robert Pinschmidt, Jason P. Rolland, Alexander Ermoshkin, Edward T. Samulsk.
DeSimone is one of less than twenty individuals who have been elected to all three branches of the National Academies: Institute of Medicine (2014), National Academy of Sciences (2012) and the National Academy of Engineering (2005), and in 2008 he won the $500,000 Lemelson-MIT Prize for Invention and Innovation. He's the co-founder of several companies, including Micell Technologies, Bioabsorbable Vascular Solutions, Liquidia Technologies and Carbon3D.
Joseph DeSimone | Speaker | TED.com