ABOUT THE SPEAKER
Edith Widder - Marine biologist
Edith Widder combines her expertise in research and technological innovation with a commitment to stopping and reversing the degradation of our marine environment.

Why you should listen

A specialist in bioluminescence, Edith Widder helps design and invent new submersible instruments and equipment to study bioluminescence and enable unobtrusive observation of deep-sea environments. Her innovative tools for exploration have produced footage of rare and wonderful bioluminescent displays and never-before-seen denizens of the deep, including, most recently, the first video ever recorded of the giant squid, Architeuthis, in its natural habitat.

In 2005 she founded the Ocean Research & Conservation Association (ORCA), which is dedicated to protecting aquatic ecosystems and the species they sustain through the development of innovative technologies and science-based conservation action.;  In an effort to protect and revitalize the ocean she loves she has been focusing on developing tools for finding and tracking pollution -- a major threat to all of our water ecosystems and ultimately to human health. She was awarded a MacArthur "genius" grant in 2006.

In 2012, Widder was among the team that filmed the giant squid (Architeuthis) for the first time in its home ocean.

More profile about the speaker
Edith Widder | Speaker | TED.com
Mission Blue Voyage

Edith Widder: Glowing life in an underwater world

Filmed:
668,425 views

Some 80 to 90 percent of undersea creatures make light -- and we know very little about how or why. Bioluminescence expert Edith Widder explores this glowing, sparkling, luminous world, sharing glorious images and insight into the unseen depths (and brights) of the ocean.
- Marine biologist
Edith Widder combines her expertise in research and technological innovation with a commitment to stopping and reversing the degradation of our marine environment. Full bio

Double-click the English transcript below to play the video.

00:15
In the spirit of Jacques Cousteau, who said,
0
0
3000
00:18
"People protect what they love,"
1
3000
2000
00:20
I want to share with you today what I love most in the ocean,
2
5000
3000
00:23
and that's the incredible number and variety
3
8000
3000
00:26
of animals in it that make light.
4
11000
3000
00:29
My addiction began with this strange looking diving suit called Wasp;
5
14000
3000
00:32
that's not an acronym -- just somebody thought it looked like the insect.
6
17000
3000
00:35
It was actually developed for use by the offshore oil industry
7
20000
3000
00:38
for diving on oil rigs down to a depth of 2,000 feet.
8
23000
3000
00:41
Right after I completed my Ph.D.,
9
26000
2000
00:43
I was lucky enough to be included with a group of scientists
10
28000
3000
00:46
that was using it for the first time
11
31000
2000
00:48
as a tool for ocean exploration.
12
33000
2000
00:50
We trained in a tank in Port Hueneme,
13
35000
2000
00:52
and then my first open ocean dive
14
37000
2000
00:54
was in Santa Barbara Channel.
15
39000
2000
00:56
It was an evening dive.
16
41000
2000
00:58
I went down to a depth of 880 feet
17
43000
3000
01:01
and turned out the lights.
18
46000
2000
01:03
And the reason I turned out the lights is because I knew I would see
19
48000
2000
01:05
this phenomenon of animals making light
20
50000
2000
01:07
called bioluminescence.
21
52000
2000
01:09
But I was totally unprepared
22
54000
2000
01:11
for how much there was
23
56000
2000
01:13
and how spectacular it was.
24
58000
3000
01:16
I saw chains of jellyfish called siphonophores
25
61000
3000
01:19
that were longer than this room,
26
64000
2000
01:21
pumping out so much light
27
66000
2000
01:23
that I could read the dials and gauges
28
68000
2000
01:25
inside the suit without a flashlight;
29
70000
2000
01:27
and puffs and billows
30
72000
2000
01:29
of what looked like luminous blue smoke;
31
74000
3000
01:32
and explosions of sparks
32
77000
2000
01:34
that would swirl up out of the thrusters --
33
79000
2000
01:36
just like when you throw a log on a campfire and the embers swirl up off the campfire,
34
81000
3000
01:39
but these were icy, blue embers.
35
84000
2000
01:41
It was breathtaking.
36
86000
2000
01:43
Now, usually if people are familiar with bioluminescence at all,
37
88000
3000
01:46
it's these guys; it's fireflies.
38
91000
2000
01:48
And there are a few other land-dwellers that can make light --
39
93000
2000
01:50
some insects, earthworms, fungi --
40
95000
2000
01:52
but in general, on land, it's really rare.
41
97000
3000
01:55
In the ocean, it's the rule
42
100000
2000
01:57
rather than the exception.
43
102000
2000
01:59
If I go out in the open ocean environment,
44
104000
2000
02:01
virtually anywhere in the world,
45
106000
2000
02:03
and I drag a net from 3,000 feet to the surface,
46
108000
3000
02:06
most of the animals --
47
111000
2000
02:08
in fact, in many places, 80 to 90 percent
48
113000
2000
02:10
of the animals that I bring up in that net --
49
115000
3000
02:13
make light.
50
118000
2000
02:15
This makes for some pretty spectacular light shows.
51
120000
2000
02:17
Now I want to share with you a little video
52
122000
3000
02:20
that I shot from a submersible.
53
125000
2000
02:22
I first developed this technique working from a little
54
127000
2000
02:24
single-person submersible called Deep Rover
55
129000
3000
02:27
and then adapted it for use on the Johnson Sea-Link,
56
132000
2000
02:29
which you see here.
57
134000
2000
02:31
So, mounted in front of the observation sphere,
58
136000
2000
02:33
there's a a three-foot diameter hoop
59
138000
3000
02:36
with a screen stretched across it.
60
141000
2000
02:38
And inside the sphere with me is an intensified camera
61
143000
2000
02:40
that's about as sensitive as a fully dark-adapted human eye,
62
145000
3000
02:43
albeit a little fuzzy.
63
148000
2000
02:45
So you turn on the camera, turn out the lights.
64
150000
2000
02:47
That sparkle you're seeing is not luminescence,
65
152000
2000
02:49
that's just electronic noise
66
154000
2000
02:51
on these super intensified cameras.
67
156000
2000
02:53
You don't see luminescence until the submersible
68
158000
2000
02:55
begins to move forward through the water,
69
160000
2000
02:57
but as it does, animals bumping into the screen
70
162000
2000
02:59
are stimulated to bioluminesce.
71
164000
2000
03:01
Now, when I was first doing this,
72
166000
2000
03:03
all I was trying to do was count the numbers of sources.
73
168000
2000
03:05
I knew my forward speed, I knew the area,
74
170000
2000
03:07
and so I could figure out how many hundreds of sources
75
172000
2000
03:09
there were per cubic meter.
76
174000
2000
03:11
But I started to realize that I could actually identify animals
77
176000
2000
03:13
by the type of flashes they produced.
78
178000
2000
03:15
And so, here, in the Gulf of Maine
79
180000
3000
03:18
at 740 feet,
80
183000
2000
03:20
I can name pretty much everything you're seeing there to the species level.
81
185000
3000
03:23
Like those big explosions, sparks,
82
188000
2000
03:25
are from a little comb jelly,
83
190000
2000
03:27
and there's krill and other kinds of crustaceans,
84
192000
3000
03:30
and jellyfish.
85
195000
2000
03:32
There was another one of those comb jellies.
86
197000
2000
03:34
And so I've worked with computer image analysis engineers
87
199000
3000
03:37
to develop automatic recognition systems
88
202000
3000
03:40
that can identify these animals
89
205000
2000
03:42
and then extract the XYZ coordinate of the initial impact point.
90
207000
3000
03:45
And we can then do the kinds of things that ecologists do on land,
91
210000
3000
03:48
and do nearest neighbor distances.
92
213000
2000
03:51
But you don't always have to go down to the depths of the ocean
93
216000
2000
03:53
to see a light show like this.
94
218000
2000
03:55
You can actually see it in surface waters.
95
220000
2000
03:57
This is some shot, by Dr. Mike Latz at Scripps Institution,
96
222000
3000
04:00
of a dolphin swimming through bioluminescent plankton.
97
225000
2000
04:02
And this isn't someplace exotic
98
227000
2000
04:04
like one of the bioluminescent bays in Puerto Rico,
99
229000
3000
04:07
this was actually shot in San Diego Harbor.
100
232000
2000
04:09
And sometimes you can see it even closer than that,
101
234000
3000
04:12
because the heads on ships --
102
237000
2000
04:14
that's toilets, for any land lovers that are listening --
103
239000
3000
04:17
are flushed with unfiltered seawater
104
242000
3000
04:20
that often has bioluminescent plankton in it.
105
245000
2000
04:22
So, if you stagger into the head late at night
106
247000
2000
04:24
and you're so toilet-hugging sick
107
249000
2000
04:26
that you forget to turn on the light,
108
251000
2000
04:28
you may think that you're having a religious experience. (Laughter)
109
253000
2000
04:31
So, how does a living creature make light?
110
256000
2000
04:33
Well, that was the question that 19th century
111
258000
2000
04:35
French physiologist Raphael Dubois,
112
260000
2000
04:37
asked about this bioluminescent clam.
113
262000
2000
04:39
He ground it up and he managed to get out a couple of chemicals;
114
264000
3000
04:42
one, the enzyme, he called luciferase;
115
267000
3000
04:45
the substrate, he called luciferin
116
270000
2000
04:47
after Lucifer the Lightbearer.
117
272000
2000
04:49
That terminology has stuck, but it doesn't actually refer to specific chemicals
118
274000
3000
04:52
because these chemicals come in a lot of different shapes and forms.
119
277000
3000
04:55
In fact, most of the people
120
280000
2000
04:57
studying bioluminescence today
121
282000
2000
04:59
are focused on the chemistry, because these chemicals
122
284000
2000
05:01
have proved so incredibly valuable
123
286000
2000
05:03
for developing antibacterial agents,
124
288000
3000
05:06
cancer fighting drugs,
125
291000
2000
05:08
testing for the presence of life on Mars,
126
293000
2000
05:10
detecting pollutants in our waters --
127
295000
2000
05:12
which is how we use it at ORCA.
128
297000
2000
05:14
In 2008,
129
299000
2000
05:16
the Nobel Prize in Chemistry
130
301000
2000
05:18
was awarded for work done
131
303000
2000
05:20
on a molecule called green fluorescent protein
132
305000
2000
05:22
that was isolated from the bioluminescent chemistry
133
307000
3000
05:25
of a jellyfish,
134
310000
2000
05:27
and it's been equated to the invention of the microscope,
135
312000
2000
05:29
in terms of the impact that it has had
136
314000
3000
05:32
on cell biology and genetic engineering.
137
317000
3000
05:35
Another thing all these molecules are telling us
138
320000
2000
05:37
that, apparently, bioluminescence has evolved
139
322000
3000
05:40
at least 40 times, maybe as many as 50 separate times
140
325000
3000
05:43
in evolutionary history,
141
328000
2000
05:45
which is a clear indication
142
330000
2000
05:47
of how spectacularly important
143
332000
3000
05:50
this trait is for survival.
144
335000
2000
05:52
So, what is it about bioluminescence
145
337000
2000
05:54
that's so important to so many animals?
146
339000
2000
05:56
Well, for animals that are trying to avoid predators
147
341000
3000
05:59
by staying in the darkness,
148
344000
3000
06:02
light can still be very useful
149
347000
2000
06:04
for the three basic things that animals have to do to survive:
150
349000
3000
06:07
and that's find food,
151
352000
2000
06:09
attract a mate and avoid being eaten.
152
354000
2000
06:11
So, for example, this fish
153
356000
2000
06:13
has a built-in headlight behind its eye
154
358000
2000
06:15
that it can use for finding food
155
360000
2000
06:17
or attracting a mate.
156
362000
2000
06:19
And then when it's not using it, it actually can roll it down into its head
157
364000
3000
06:22
just like the headlights on your Lamborghini.
158
367000
2000
06:25
This fish actually has high beams.
159
370000
3000
06:28
And this fish, which is one of my favorites,
160
373000
2000
06:30
has three headlights on each side of its head.
161
375000
3000
06:33
Now, this one is blue,
162
378000
2000
06:35
and that's the color of most bioluminescence in the ocean
163
380000
2000
06:37
because evolution has selected
164
382000
2000
06:39
for the color that travels farthest through seawater
165
384000
2000
06:41
in order to optimize communication.
166
386000
2000
06:43
So, most animals make blue light,
167
388000
2000
06:45
and most animals can only see blue light,
168
390000
3000
06:48
but this fish is a really fascinating exception
169
393000
2000
06:50
because it has two red light organs.
170
395000
3000
06:53
And I have no idea why there's two,
171
398000
2000
06:55
and that's something I want to solve some day --
172
400000
2000
06:57
but not only can it see blue light,
173
402000
3000
07:00
but it can see red light.
174
405000
2000
07:02
So it uses its red bioluminescence like a sniper's scope
175
407000
3000
07:05
to be able to sneak up on animals
176
410000
2000
07:07
that are blind to red light
177
412000
2000
07:09
and be able to see them without being seen.
178
414000
2000
07:11
It's also got a little chin barbel here
179
416000
2000
07:13
with a blue luminescent lure on it
180
418000
2000
07:15
that it can use to attract prey from a long way off.
181
420000
3000
07:18
And a lot of animals will use their bioluminescence as a lure.
182
423000
3000
07:22
This is another one of my favorite fish.
183
427000
2000
07:24
This is a viperfish, and it's got a lure
184
429000
2000
07:26
on the end of a long fishing rod
185
431000
2000
07:28
that it arches in front of the toothy jaw
186
433000
2000
07:30
that gives the viperfish its name.
187
435000
3000
07:33
The teeth on this fish are so long
188
438000
2000
07:35
that if they closed inside the mouth of the fish,
189
440000
2000
07:37
it would actually impale its own brain.
190
442000
3000
07:40
So instead, it slides in grooves
191
445000
2000
07:42
on the outside of the head.
192
447000
2000
07:44
This is a Christmas tree of a fish;
193
449000
2000
07:46
everything on this fish lights up,
194
451000
2000
07:48
it's not just that lure.
195
453000
2000
07:50
It's got a built-in flashlight.
196
455000
2000
07:52
It's got these jewel-like light organs on its belly
197
457000
2000
07:54
that it uses for a type of camouflage
198
459000
3000
07:57
that obliterates its shadow,
199
462000
3000
08:00
so when it's swimming around and there's a predator looking up from below,
200
465000
3000
08:03
it makes itself disappear.
201
468000
2000
08:05
It's got light organs in the mouth,
202
470000
2000
08:07
it's got light organs in every single scale, in the fins,
203
472000
2000
08:09
in a mucus layer on the back and the belly,
204
474000
2000
08:11
all used for different things --
205
476000
2000
08:13
some of which we know about, some of which we don't.
206
478000
2000
08:15
And we know a little bit more about bioluminescence thanks to Pixar,
207
480000
3000
08:18
and I'm very grateful to Pixar for sharing
208
483000
2000
08:20
my favorite topic with so many people.
209
485000
2000
08:22
I do wish, with their budget,
210
487000
2000
08:24
that they might have spent just a tiny bit more money
211
489000
3000
08:27
to pay a consulting fee to some poor, starving graduate student,
212
492000
3000
08:30
who could have told them that those are the eyes
213
495000
2000
08:32
of a fish that's been preserved in formalin.
214
497000
3000
08:35
These are the eyes of a living anglerfish.
215
500000
2000
08:37
So, she's got a lure that she sticks out
216
502000
2000
08:39
in front of this living mousetrap
217
504000
2000
08:41
of needle-sharp teeth
218
506000
2000
08:43
in order to attract in some unsuspecting prey.
219
508000
3000
08:46
And this one has a lure
220
511000
2000
08:48
with all kinds of little interesting threads coming off it.
221
513000
3000
08:51
Now we used to think that the different shape of the lure
222
516000
3000
08:54
was to attract different types of prey,
223
519000
2000
08:56
but then stomach content analyses on these fish
224
521000
3000
08:59
done by scientists, or more likely their graduate students,
225
524000
3000
09:02
have revealed that
226
527000
2000
09:04
they all eat pretty much the same thing.
227
529000
2000
09:06
So, now we believe that the different shape of the lure
228
531000
2000
09:08
is how the male recognizes the female
229
533000
2000
09:10
in the anglerfish world,
230
535000
2000
09:12
because many of these males
231
537000
2000
09:14
are what are known as dwarf males.
232
539000
2000
09:16
This little guy
233
541000
2000
09:18
has no visible means of self-support.
234
543000
3000
09:21
He has no lure for attracting food
235
546000
2000
09:23
and no teeth for eating it when it gets there.
236
548000
2000
09:25
His only hope for existence on this planet
237
550000
3000
09:28
is as a gigolo. (Laughter)
238
553000
2000
09:30
He's got to find himself a babe
239
555000
2000
09:32
and then he's got to latch on for life.
240
557000
3000
09:35
So this little guy
241
560000
2000
09:37
has found himself this babe,
242
562000
2000
09:39
and you will note that he's had the good sense
243
564000
2000
09:41
to attach himself in a way that he doesn't actually have to look at her.
244
566000
3000
09:44
(Laughter)
245
569000
2000
09:46
But he still knows a good thing when he sees it,
246
571000
2000
09:48
and so he seals the relationship with an eternal kiss.
247
573000
3000
09:51
His flesh fuses with her flesh,
248
576000
2000
09:53
her bloodstream grows into his body,
249
578000
2000
09:55
and he becomes nothing more than a little sperm sac.
250
580000
3000
09:58
(Laughter)
251
583000
2000
10:00
Well, this is a deep-sea version of Women's Lib.
252
585000
2000
10:02
She always knows where he is,
253
587000
2000
10:04
and she doesn't have to be monogamous,
254
589000
2000
10:06
because some of these females
255
591000
2000
10:08
come up with multiple males attached.
256
593000
2000
10:10
So they can use it for finding food, for attracting mates.
257
595000
3000
10:13
They use it a lot for defense, many different ways.
258
598000
3000
10:16
A lot of them can release their luciferin or luferase in the water
259
601000
3000
10:19
just the way a squid or an octopus will release an ink cloud.
260
604000
2000
10:21
This shrimp is actually
261
606000
2000
10:23
spewing light out of its mouth
262
608000
2000
10:25
like a fire breathing dragon
263
610000
2000
10:27
in order to blind or distract this viperfish
264
612000
2000
10:29
so that the shrimp can swim away into the darkness.
265
614000
2000
10:31
And there are a lot of different animals that can do this:
266
616000
3000
10:34
There's jellyfish, there's squid,
267
619000
2000
10:36
there's a whole lot of different crustaceans,
268
621000
2000
10:38
there's even fish that can do this.
269
623000
2000
10:40
This fish is called the shining tubeshoulder
270
625000
3000
10:43
because it actually has a tube on its shoulder
271
628000
2000
10:45
that can squirt out light.
272
630000
2000
10:47
And I was luck enough to capture one of these
273
632000
2000
10:49
when we were on a trawling expedition
274
634000
2000
10:51
off the northwest coast of Africa for "Blue Planet,"
275
636000
3000
10:54
for the deep portion of "Blue Planet."
276
639000
2000
10:56
And we were using a special trawling net
277
641000
2000
10:58
that we were able to bring these animals up alive.
278
643000
2000
11:00
So we captured one of these, and I brought it into the lab.
279
645000
3000
11:03
So I'm holding it,
280
648000
2000
11:05
and I'm about to touch that tube on its shoulder,
281
650000
2000
11:07
and when I do, you'll see bioluminescence coming out.
282
652000
3000
11:11
But to me, what's shocking
283
656000
2000
11:13
is not just the amount of light,
284
658000
2000
11:15
but the fact that it's not just luciferin and luciferase.
285
660000
2000
11:17
For this fish, it's actually whole cells
286
662000
2000
11:19
with nuclei and membranes.
287
664000
2000
11:21
It's energetically very costly for this fish to do this,
288
666000
2000
11:23
and we have no idea why it does it --
289
668000
3000
11:26
another one of these great mysteries that needs to be solved.
290
671000
3000
11:31
Now, another form of defense
291
676000
2000
11:33
is something called a burglar alarm --
292
678000
2000
11:35
same reason you have a burglar alarm on your car;
293
680000
2000
11:37
the honking horn and flashing lights
294
682000
2000
11:39
are meant to attract the attention of, hopefully,
295
684000
2000
11:41
the police that will come and take the burglar away --
296
686000
2000
11:43
when an animal's caught in the clutches of a predator,
297
688000
2000
11:45
its only hope for escape may be
298
690000
2000
11:47
to attract the attention of something bigger and nastier
299
692000
2000
11:49
that will attack their attacker,
300
694000
2000
11:51
thereby affording them a chance for escape.
301
696000
3000
11:54
This jellyfish, for example, has
302
699000
2000
11:56
a spectacular bioluminescent display.
303
701000
2000
11:58
This is us chasing it in the submersible.
304
703000
2000
12:00
That's not luminescence, that's reflected light from the gonads.
305
705000
3000
12:03
We capture it in a very special device on the front of the submersible
306
708000
3000
12:06
that allows us to bring it up in really pristine condition,
307
711000
3000
12:09
bring it into the lab on the ship.
308
714000
2000
12:11
And then to generate the display you're about to see,
309
716000
2000
12:13
all I did was touch it once per second
310
718000
2000
12:15
on its nerve ring with a sharp pick
311
720000
2000
12:17
that's sort of like the sharp tooth of a fish.
312
722000
2000
12:19
And once this display gets going, I'm not touching it anymore.
313
724000
3000
12:22
This is an unbelievable light show.
314
727000
3000
12:25
It's this pinwheel of light,
315
730000
2000
12:27
and I've done calculations that show that this could be seen
316
732000
2000
12:29
from as much as 300 feet away by a predator.
317
734000
3000
12:32
And I thought, "You know,
318
737000
2000
12:34
that might actually make a pretty good lure."
319
739000
2000
12:36
Because one of the things that's frustrated me
320
741000
3000
12:39
as a deep-sea explorer
321
744000
2000
12:41
is how many animals there probably are in the ocean that we know nothing about
322
746000
3000
12:44
because of the way we explore the ocean.
323
749000
3000
12:47
The primary way that we know about what lives in the ocean
324
752000
3000
12:50
is we go out and drag nets behind ships.
325
755000
3000
12:53
And I defy you to name any other branch of science
326
758000
2000
12:55
that still depends on hundreds of year-old technology.
327
760000
3000
12:58
The other primary way is we go down
328
763000
2000
13:00
with submersibles and remote-operated vehicles.
329
765000
2000
13:02
I've made hundreds of dives in submersibles.
330
767000
3000
13:05
When I'm sitting in a submersible though,
331
770000
2000
13:07
I know that I'm not unobtrusive at all --
332
772000
3000
13:10
I've got bright lights and noisy thrusters --
333
775000
2000
13:12
any animal with any sense is going to be long gone.
334
777000
3000
13:15
So, I've wanted for a long time
335
780000
3000
13:18
to figure out a different way to explore.
336
783000
2000
13:20
And so, sometime ago, I got this idea for a camera system.
337
785000
3000
13:23
It's not exactly rocket science. We call this thing Eye-in-the-Sea.
338
788000
3000
13:26
And scientists have done this on land for years;
339
791000
2000
13:28
we just use a color that the animals can't see
340
793000
3000
13:31
and then a camera that can see that color.
341
796000
2000
13:33
You can't use infrared in the sea.
342
798000
2000
13:35
We use far-red light, but even that's a problem
343
800000
2000
13:37
because it gets absorbed so quickly.
344
802000
2000
13:39
Made an intensified camera,
345
804000
2000
13:41
wanted to make this electronic jellyfish.
346
806000
2000
13:43
Thing is, in science,
347
808000
3000
13:46
you basically have to tell the funding agencies what you're going to discover
348
811000
3000
13:49
before they'll give you the money.
349
814000
2000
13:51
And I didn't know what I was going to discover,
350
816000
2000
13:53
so I couldn't get the funding for this.
351
818000
2000
13:55
So I kluged this together, I got the Harvey Mudd Engineering Clinic
352
820000
3000
13:58
to actually do it as an undergraduate student project initially,
353
823000
3000
14:01
and then I kluged funding from a whole bunch of different sources.
354
826000
3000
14:04
Monterey Bay Aquarium Research Institute
355
829000
2000
14:06
gave me time with their ROV
356
831000
3000
14:09
so that I could test it and we could figure out,
357
834000
2000
14:11
you know, for example, which colors of red light we had to use
358
836000
3000
14:14
so that we could see the animals, but they couldn't see us --
359
839000
3000
14:17
get the electronic jellyfish working.
360
842000
3000
14:20
And you can see just what a shoestring operation this really was,
361
845000
3000
14:23
because we cast these 16 blue LEDs in epoxy
362
848000
3000
14:26
and you can see in the epoxy mold that we used,
363
851000
2000
14:28
the word Ziploc is still visible.
364
853000
3000
14:31
Needless to say, when it's kluged together like this,
365
856000
3000
14:34
there were a lot of trials and tribulations getting this working.
366
859000
3000
14:37
But there came a moment when it all came together,
367
862000
2000
14:39
and everything worked.
368
864000
2000
14:41
And, remarkably, that moment got caught on film
369
866000
2000
14:43
by photographer Mark Richards,
370
868000
2000
14:45
who happened to be there at the precise moment
371
870000
2000
14:47
that we discovered that it all came together.
372
872000
3000
14:50
That's me on the left,
373
875000
2000
14:52
my graduate student at the time, Erika Raymond,
374
877000
2000
14:54
and Lee Fry, who was the engineer on the project.
375
879000
3000
14:57
And we have this photograph posted in our lab in a place of honor
376
882000
3000
15:00
with the caption: "Engineer satisfying two women at once." (Laughter)
377
885000
3000
15:04
And we were very, very happy.
378
889000
2000
15:06
So now we had a system
379
891000
2000
15:08
that we could actually take to some place
380
893000
2000
15:10
that was kind of like an oasis on the bottom of the ocean
381
895000
2000
15:12
that might be patrolled by large predators.
382
897000
3000
15:16
And so, the place that we took it to
383
901000
2000
15:18
was this place called a Brine Pool,
384
903000
2000
15:20
which is in the northern part of the Gulf of Mexico.
385
905000
2000
15:22
It's a magical place.
386
907000
2000
15:24
And I know this footage isn't going to look like anything to you --
387
909000
2000
15:26
we had a crummy camera at the time --
388
911000
2000
15:28
but I was ecstatic.
389
913000
2000
15:30
We're at the edge of the Brine Pool,
390
915000
2000
15:32
there's a fish that's swimming towards the camera.
391
917000
3000
15:35
It's clearly undisturbed by us.
392
920000
2000
15:37
And I had my window into the deep sea.
393
922000
3000
15:40
I, for the first time, could see what animals were doing down there
394
925000
3000
15:43
when we weren't down there disturbing them in some way.
395
928000
3000
15:47
Four hours into the deployment,
396
932000
2000
15:49
we had programmed the electronic jellyfish
397
934000
2000
15:51
to come on for the first time.
398
936000
2000
15:53
Eighty-six seconds after
399
938000
2000
15:55
it went into its pinwheel display,
400
940000
2000
15:57
we recorded this:
401
942000
2000
16:00
This is a squid, over six feet long,
402
945000
2000
16:02
that is so new to science,
403
947000
2000
16:04
it cannot be placed in any known scientific family.
404
949000
3000
16:08
I could not have asked for a better proof of concept.
405
953000
3000
16:11
And based on this, I went back to the National Science Foundation
406
956000
2000
16:13
and said, "This is what we will discover."
407
958000
3000
16:16
And they gave me enough money to do it right,
408
961000
2000
16:18
which has involved developing the world's first deep-sea webcam --
409
963000
3000
16:21
which has been installed in
410
966000
2000
16:23
the Monterey Canyon for the past year --
411
968000
2000
16:25
and now, more recently,
412
970000
2000
16:27
a modular form of this system,
413
972000
2000
16:29
a much more mobile form
414
974000
2000
16:31
that's a lot easier to launch and recover,
415
976000
2000
16:33
that I hope can be used on Sylvia's "hope spots"
416
978000
3000
16:36
to help explore
417
981000
2000
16:38
and protect these areas,
418
983000
2000
16:40
and, for me, learn more about
419
985000
2000
16:42
the bioluminescence in these "hope spots."
420
987000
3000
16:45
So one of these take-home messages here
421
990000
3000
16:48
is, there is still a lot to explore in the oceans.
422
993000
3000
16:51
And Sylvia has said
423
996000
2000
16:53
that we are destroying the oceans before we even know what's in them,
424
998000
3000
16:56
and she's right.
425
1001000
2000
16:58
So if you ever, ever get an opportunity
426
1003000
2000
17:00
to take a dive in a submersible,
427
1005000
2000
17:02
say yes -- a thousand times, yes --
428
1007000
3000
17:05
and please turn out the lights.
429
1010000
2000
17:07
I promise, you'll love it.
430
1012000
2000
17:09
Thank you.
431
1014000
2000
17:11
(Applause)
432
1016000
2000

▲Back to top

ABOUT THE SPEAKER
Edith Widder - Marine biologist
Edith Widder combines her expertise in research and technological innovation with a commitment to stopping and reversing the degradation of our marine environment.

Why you should listen

A specialist in bioluminescence, Edith Widder helps design and invent new submersible instruments and equipment to study bioluminescence and enable unobtrusive observation of deep-sea environments. Her innovative tools for exploration have produced footage of rare and wonderful bioluminescent displays and never-before-seen denizens of the deep, including, most recently, the first video ever recorded of the giant squid, Architeuthis, in its natural habitat.

In 2005 she founded the Ocean Research & Conservation Association (ORCA), which is dedicated to protecting aquatic ecosystems and the species they sustain through the development of innovative technologies and science-based conservation action.;  In an effort to protect and revitalize the ocean she loves she has been focusing on developing tools for finding and tracking pollution -- a major threat to all of our water ecosystems and ultimately to human health. She was awarded a MacArthur "genius" grant in 2006.

In 2012, Widder was among the team that filmed the giant squid (Architeuthis) for the first time in its home ocean.

More profile about the speaker
Edith Widder | Speaker | TED.com

Data provided by TED.

This site was created in May 2015 and the last update was on January 12, 2020. It will no longer be updated.

We are currently creating a new site called "eng.lish.video" and would be grateful if you could access it.

If you have any questions or suggestions, please feel free to write comments in your language on the contact form.

Privacy Policy

Developer's Blog

Buy Me A Coffee