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Be Undisciplined. Lose Your Innocence. Get to Work. | Theodore Pavlic | TEDxASU


[Applause]

so this story begins about 15 years ago

when I started as a graduate student in

a laboratory of dr. Kevin pass/no at the

Ohio State University Kevin was an

interesting guy sat down with him said

Kevin what class is going to take I am a

PhD student an electrical engineering

he said we definitely don’t want you

taking electrical engineering courses

you’re going to get plenty of Electrical

Engineering interacting with me and all

of people around us and your job as a

PhD student is to grow our discipline so

I want you to go out and take advanced

mathematics statistics and actually a

lot of biology go out and take some

evolution courses of course in

behavioral ecology because we want to

grow this thing and we’re not going to

do that by you taking courses that

you’re going to get anyway by doing the

projects here so I thought well you know

that’s kind of interesting and so I’ve

you know in being around people like

Kevin for the last say 15 years or so

I’ve given a lot of thought to what do

we mean by discipline so if you look at

discipline these are some definitions

you can get a branch of knowledge

typically one studied in higher

education or a field of study but when

you walk around the halls of higher

education

you start feeling some of the other

definitions so as one example orderly or

prescribed conduct or pattern of

behavior I often will bump into my

colleagues especially the young ones

I’ll say great you know you you should

meet this other faculty member this

other department they’re working on it’s

interesting problem and I think that

that you you you could contribute and

they tell you know what that that might

be something I can contribute to but not

not right now in my career I need to

stick to what is going on in my

discipline I start thinking so what what

should I do they start looking to other

people in their discipline to say what

are other people in my discipline doing

so our disciplines give us a template

they’re they’re very powerful so we can

ask where do they come from now when I

think about disciplines I think about

things like these Starling flocks so the

beautiful these murmuration ‘s right and

so down at the bottom it says we’re

disciplines come from

and in these Starling flocks when we

look at these we might you know wonder

do these do these

formations do these flocks actually have

any function but in reality these flocks

themselves a biologist will tell you

that the actual shape of these

macroscopic structures don’t have any

function they’re actually the result of

each Starling playing it safe each

Starling is trying to minimize its risk

of predation so it gets as close to the

other starlings around us and you get

these beautiful structures that’s what I

think of our disciplines sometimes is

that we get closer and closer to those

around us to play it safe and we form

these structures that we worship but in

the end it’s not clear that they’re

functional fact sometimes when I think

about that that faculty friend that I

talked about who I said you know you

should go meet up with this other one

well they’ll tell me is no you know I’ll

do that after I get tenure discipline

punishment inflicted by by way of

correction in training discipline to

bring a state of order and obedience by

training and control discipline to

punish or penalize in order to train and

control to correct to chastise again in

that story I’ll tell these these guys

you know you should meet up you know

faculty a and faculty B you should come

together and I’ll say if I did that

there’s no way I could ever get tenure

those are things I save after I’ve

gotten tenure so discipline it’s it’s

very controlling and maybe it’s a good

thing but we have to ask what costs do

we pay when we take these disciplines

for granted and that brings me back to

another story that started back when I

was a grad student so this is a

beautiful picture taken by Alex Wilde of

a nigma Newman wasp but parasitoid wasp

and when I was with Kevin and grad

school Kevin said when you look at that

don’t think of that as an object for

entomology or an object for biology when

you look at that you’ve got to realize

that that fits into a set of things that

go right along with this autonomous

helicopter or this autonomous underwater

exploration vehicle or this autonomous

vacuum cleaner they all are making

decisions and we need to view them by

what they’re doing and not who studies

them you’d say well what sort of

decisions is this wasp making well

in the 80s some behavioral ecologist

looked at wasps like these and they said

you know it’s interesting these wasps

have a finite number of eggs and they

have to lay them in a finite number of

places and they can’t lay the same

amount of eggs everywhere they have to

decide how many eggs to lay in each

place so they picked up operations

research textbooks off the engineering

shelves and built these optimization

models the details don’t matter but

these mathematical models and they

accurately predicted where the wasp was

laying those eggs but wasps aren’t doing

calculus in their little heads so then

they had to go forward and say how can

we build simple behavioral algorithms

that when combined with the environment

end up producing outcomes which follow

these optimality solutions and and when

Kevin and I read that we said you know

this is great we could use the same

tools for engineering the problem is

that the functions the behavioral

ecologist use weren’t quite general

enough for our engineering context so

rather than switching to a new framework

we expanded their framework so we could

handle the whole family of autonomous

decision-making and we published that in

a robotics journal expecting that

roboticists would be interested and most

interested in it but it actually got

picked up by a wireless communication

the set of people working on on multi

radio networks we were trying to figure

out new ways to allocate energy to

radios to provide the same bandwidth at

a lower cost and using our methods we

developed from this wasp they were able

to provide the same bandwidth for lower

energy than off-the-shelf methods now

they put foraging in the title of the

paper that they published here and they

knew that foraging theory had something

to do with it but I’m sure that they had

no idea that a wasp was behind it all

now you might ask why didn’t I talk more

about the wasp in that paper because it

was valuable for me to know about the

wasp so it should be valuable for them

to know about the wasp well the thing is

that wasp is too big for that little box

that little paper there if I would have

gone on and on and on about these

parasitoid wasps and that paper it would

have never gotten published in a

robotics Journal the editor would say

save that for another community our

community is not interested in that

keep it to the robotics split this into

two papers because there’s no reason for

one community to read papers from that

other

unity so we kept it out but obviously it

has some value at least we think it has

some value I think this one has slightly

other costs so here’s another one a

definition that I came up with it

provides an opportunity to reinvent the

wheel again and again and again it’s

another example the math on here doesn’t

quite matter but this is a snippet from

a paper written by a Nobel Memorial

Prize winner in economics William sharp

back in the papers from 1966 he won the

Nobel in 1990 and this is a very

influential paper that tells financial

planners how to allocate money to risky

stocks so they could maximize their

performance at the lowest aggregate risk

and it involves this thing called the

Sharpe ratio which shows up in the

middle of that equation now later on

some behavioral ecologist like the ones

who work with that wasp started saying

how do animals allocate their time in

different ways that also have risk and

they wrote a paper that has actually the

exact same ratio in it now you might

think that they read the financial

literature just borrowed it directly

from him you know hurrah for

interdisciplinarity but unfortunately

they derive this all by themselves

totally ignorant of this work over here

so the Sharpe ratio even though it’s

named after a Nobel Memorial Prize

winner is was totally gone unnoticed

when I presented this in my Master’s

defense a behavioral ecologist in the

audience said Eureka finally have

something to call it when I teach this

stuff but I mean seriously if you look

at the gap here 1966 to 1980 – that’s

almost 20 years where these communities

could be working together but they

didn’t because what do people in finance

care about insects and what do people in

insects care about finance what do I

think discipline should be this one to

me is a branch of instruction or

learning we teach our disciplines but we

practice our problem-solving I run a

small lab here at ASU I call the science

and engineering of autonomous

decision-making systems people sometimes

ask me what do you do in your lab and I

give them this picture where I have this

I say well we link together all these

different disciplines some computers

and cognitive psychology and it’s a nice

picture but in the end all we really

care about is whatever tools allow us to

study autonomous decision-making in

natural and artificial systems and I

should emphasize natural and artificial

systems both equally together not one in

service of the other now when I first

came to ASU they’re pretty excited about

this when they hired me and I was pretty

excited about the interdisciplinarity at

ASU but when I started talking to sort

of the middle management of ASU allocate

resources their more traditional

engineers and they started asking me why

do you need a laboratory

can’t you just collaborate can’t you

just go to all these people you know

here at ASU and have them run your

experiments for you again they brought

up the tenure thing there’s no way

you’re going to get tenure

if you’ve running experiments in a lab

you’re an engineer what are you doing

run while you’re asking to run put ants

in your laboratory but that doesn’t

sound like collaboration to me that

sounds like parasitism so when I

interact with my collaborators it’s more

about learning how they think different

directions on the same problem we are

united by the problem not about the

resources we need to get let me give an

example of that so here’s another Nobel

Prize winner this time in Physiology and

medicine Niko Tinbergen he’s one of the

fathers of behavioral ecology now

behavioral ecologist are interesting

when they talk about communication they

group things into signals and cues

signals are the messages that we

explicitly send from one person to

another for the benefit of both and cues

are sort of things that we give away

even though we don’t mean to and

behavioral ecology will tell you that

every signal evolved from a cue that was

once co-opted well I had a graduate

student in computer science who’s very

skilled at machine learning and he said

that’s interesting what if I can take a

bunch of robots in a string together

that you’ll see here and restrict them

from sending any messages to each other

all they can do is watch the robot right

in front of them and I’ll have the lead

robot we’ll hit an object and the goal

is for all of the rest to eventually

surround the object what he found out is

he could actually use the slight Wiggles

of the robot in the sort of the

second-to-last robot and the final robot

could use those Wiggles to infer the

positions of

every other robot and thus be able to

coordinate its motions based on what

happened to the lead robot with

absolutely no communication that just

came from thinking about the problem

like a behavioral ecologist we also take

examples from engineering and apply them

directly to ants this is another one of

my students who actually works in the

lab with ant colonies using theories

that come out of thinking about

intelligent lighting systems we go

further and further we have information

processing where we have a team of a

multidisciplinary team where we actually

have a swarm robot assisted of the

experimental work with the ant and

somebody who studies the way planets

break apart and come back together doing

all of the modeling work with the ants

we have another recently started project

we’ve hired a tropical ecologist to come

and do work with these beautiful army

ants all in the service of understanding

how information will be passed around

the internet of things and this is a

project where although we had all the

skill sets to come together to put this

together the military actually came up

with this idea they said we don’t see

anything really valuable in a lot of the

way the internet the things is being

organized with this particular problem

in mind we think insects might have

something to say can you do something

for us so looking ahead we have a lot of

these other projects where we’re just

basically I’m not going to go through

all these but the idea here is we’re

grouping people together by problems

they’re interested in and not resources

that they have so I guess the message

for you and thinking about innovation is

I’m hoping that as you move forward and

try to be innovative be undisciplined

what do you mean by that remember that

your discipline is what you teach your

discipline is not what you learn and it

certainly shouldn’t be defining what you

do thank you [Applause]

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