WEBVTT
00:00:00.299 --> 00:00:00.869
Hello everybody.
00:00:00.869 --> 00:00:02.160
Welcome to the Fire Science Show.
00:00:02.160 --> 00:00:11.369
This week we're venturing in the world of, uh, human behavior in fire, and I have an absolutely excellent speaker to discuss this, uh, important matter with.
00:00:11.369 --> 00:00:14.490
And that is Erica Kuligowski from RMIT.
00:00:14.490 --> 00:00:23.600
You may remember an episode with Ika that was in the early days of the podcast where she was moving into Australia, and we were discussing, uh, the decision making.
00:00:23.600 --> 00:00:25.181
Fires.
00:00:25.181 --> 00:00:34.780
Interestingly, some years later she's still working on decision making fires, and today we can discuss it even more.
00:00:34.780 --> 00:00:41.320
And actually we, we discuss a very specific aspect of decision making, you know, um.
00:00:41.320 --> 00:00:48.106
From the larger image in fires we have those things that, very common, that are quite simple.
00:00:48.106 --> 00:00:55.485
You know, when you wrap them in statistics, like in case of evacuation, the pre evacuation time distributions, for example.
00:00:55.485 --> 00:01:03.375
But once you want to have a detailed model of how something works, it becomes extremely complicated.
00:01:03.375 --> 00:01:06.436
And without those complexities, you cannot really model.
00:01:06.436 --> 00:01:08.021
It accurately.
00:01:08.021 --> 00:01:21.986
The same case is for decision making and vacation processes, and in this case, the specific niche that Eric is interested in and that we mostly discuss in today's episode is what happens.
00:01:21.986 --> 00:01:25.206
Between the decision to evacuate.
00:01:25.206 --> 00:01:35.587
So a person takes a decision, they want to evacuate, and, them actually reaching a place of safety because it's not that they teleport or venture always in a straight line.
00:01:35.587 --> 00:01:38.811
A lot of things happen and those things influence how others.
00:01:38.811 --> 00:01:48.231
Can evacuate those things influence the capacity of road networks and, uh, those things will influence how the evacuation process will happen at large.
00:01:48.231 --> 00:01:52.462
Something we don't really consider that much, but perhaps we should.
00:01:52.462 --> 00:02:01.581
This is of course, carried out in relationship to large scale evacuations, but a lot of concepts that are discussed are highly relevant for buildings.
00:02:01.581 --> 00:02:07.867
So if you are a building person, I would still recommend you to listen because Erica is, uh, just a brilliant speaker.
00:02:07.867 --> 00:02:13.883
And also she has this unique overview of the entire field of human behavior in fire.
00:02:13.883 --> 00:02:17.873
So at the same time, it's kind of a review what the field is doing.
00:02:17.873 --> 00:02:19.644
I hope you will enjoy it.
00:02:19.644 --> 00:02:21.054
I have enjoyed a lot.
00:02:21.054 --> 00:02:23.514
Let's spin the intro and jump into the episode.
00:02:47.338 --> 00:02:51.568
The Fire Science Show podcast is brought to you in partnership with OFR Consultants.
00:02:51.568 --> 00:03:01.340
OFR is the UK's leading independent multi-award winning fire engineering consultancy with a reputation for delivering innovative safety driven solutions.
00:03:01.340 --> 00:03:10.568
we've been on this journey together for three years so far, and here it begins the fourth year of collaboration between the Fire Science Show and the OFR.
00:03:10.568 --> 00:03:27.995
So far, we've brought you more than 150 episodes, Which translate into nearly 150 hours of educational content available, free, accessible, all over the planet without any paywalls advertisement or hidden agendas.
00:03:27.995 --> 00:03:34.985
This makes me very proud and I am super thankful to OFR for this long lasting partnership.
00:03:34.985 --> 00:03:50.865
I'm extremely happy that we've just started the year four, and I hope there will be many years after that to come So big thanks, OFR for your support to the Fire Science show and the support to the fire safety community at large that we can deliver together.
00:03:50.865 --> 00:03:58.423
And for you, the listener, if you would like to learn more or perhaps even become a part of OR, they always have opportunities awaiting.
00:03:58.423 --> 00:04:02.862
Check their website@orconsultants.com And now let's head back to the episode.
00:04:03.832 --> 00:04:04.462
Hello everybody.
00:04:04.462 --> 00:04:07.703
I am joined today by Erica Kuligowski from RMIT.
00:04:07.703 --> 00:04:08.362
Uh, hey Erica.
00:04:08.362 --> 00:04:09.712
Welcome back to the podcast.
00:04:10.694 --> 00:04:12.074
Thank you so much, EK.
00:04:12.074 --> 00:04:13.604
It's nice to be back.
00:04:14.002 --> 00:04:16.012
to invest 200 something episodes.
00:04:16.012 --> 00:04:17.843
It's absolutely crazy.
00:04:17.843 --> 00:04:20.483
Last time we talked you were moving to Melbourne.
00:04:20.483 --> 00:04:23.894
Yes, yes, it, that's been a while.
00:04:23.894 --> 00:04:25.658
So There's there, there's
00:04:25.694 --> 00:04:26.144
happened.
00:04:26.273 --> 00:04:30.622
there, there's a lot to catch up, but I'm even more excited to, to do this here.
00:04:30.622 --> 00:04:39.588
Um, observing what you're doing nowadays in Australia, you've ventured, uh, pretty far away from our good old building, uh, fires.
00:04:39.588 --> 00:04:45.000
Like what's the field of, uh, human behavior in fire that you're most interested in today?
00:04:45.245 --> 00:04:50.165
Yeah, so looking back on my career, I have, yeah, you're right.
00:04:50.165 --> 00:04:59.418
I've, I've sort of, moved from the building fire space more into the wildfire and bushfire space, and I did that a little bit before I had moved to Australia.
00:04:59.418 --> 00:05:24.447
But since I've been here, I've been very much working in, uh, the large scale hazards and disasters space, understanding how people respond different types of hazards and uh, trying to understand how we can improve emergency communication and also evacuation strategies for in hazard prone areas.
00:05:24.447 --> 00:05:27.267
So I've been looking at wildfires or bush fires.
00:05:27.267 --> 00:05:35.331
I have, uh, a few students who are PhDs working in the tsunami space and then I also have been working in floods as well.
00:05:35.331 --> 00:05:37.372
So lots of work and very
00:05:37.699 --> 00:05:38.744
And very large scale.
00:05:38.744 --> 00:05:41.019
okay, uh, you've ventured into Australia.
00:05:41.019 --> 00:05:43.240
What's the difference between the wildfire and bushfire?
00:05:43.240 --> 00:05:45.250
Is it like inherently different thing?
00:05:45.250 --> 00:05:48.639
I don't think I have the bushfire episodes specifically in the podcast yet.
00:05:48.793 --> 00:05:50.564
No, so it is very similar.
00:05:50.564 --> 00:05:56.430
It's a, it's just the term that we use here we don't use wildfire as the term, it's mainly bush fire.
00:05:56.430 --> 00:06:06.505
but we here in Australia call sort of the forests or heavily dense areas, the bush, so heavily vegetation dense areas.
00:06:06.505 --> 00:06:08.875
So that's where the bush fire term comes from.
00:06:08.875 --> 00:06:13.665
but if in fact it is a grass fire instead, then we'll use that term.
00:06:13.665 --> 00:06:21.961
So there is certainly, Differences in the fires that we have here, similar in to the US and Canada and elsewhere.
00:06:21.961 --> 00:06:25.740
But yes, we pretty much have wildfire synonymous with bushfire.
00:06:26.454 --> 00:06:31.269
I hope you are not developing something like Buoy Bush Urban Interface.
00:06:32.341 --> 00:06:35.651
No, no, no, no, no, no, no, no, no.
00:06:35.651 --> 00:06:37.750
We don't really use the term wooey here.
00:06:37.750 --> 00:06:46.180
Mainly bushfire prone areas or areas on the urban fringe or peri-urban areas that are, um, at risk of bushfire.
00:06:46.204 --> 00:06:47.103
That, that's also nice.
00:06:47.103 --> 00:06:48.004
I, I like that.
00:06:48.004 --> 00:06:48.569
I like, I,
00:06:48.911 --> 00:06:49.240
Yeah.
00:06:49.473 --> 00:06:51.303
I'm not sure if I'm happy with the woo term.
00:06:51.303 --> 00:06:54.209
I just find it really difficult to say, but.
00:06:54.761 --> 00:06:56.050
Doesn't roll off the tongue.
00:06:56.050 --> 00:06:56.411
No.
00:06:57.213 --> 00:06:57.454
Yeah.
00:06:57.454 --> 00:06:58.293
But, but yeah.
00:06:58.293 --> 00:07:04.701
Nothing better comes to my mind Um, and anyway, let's talk about those, uh, large scale, um, fire evacuation.
00:07:04.701 --> 00:07:09.471
So, uh, last time you were here and I highly recommend everyone to listen to that episode.
00:07:09.471 --> 00:07:12.442
It's all is still very, very highly relevant.
00:07:12.442 --> 00:07:13.401
Link is in the show notes.
00:07:13.401 --> 00:07:29.809
last time we were here, we were discussing your PADM model, uh, model that allows us to, to kind of model the behavior of, of people when they evacuate or the actions that people are taking, from the moment they, they see the fire to the moment they, they evacuate.
00:07:29.809 --> 00:07:36.048
Um, is this something that still is in the core of the development when you transition into large scale fires?
00:07:36.048 --> 00:07:37.908
Is does it work in similar way?
00:07:38.115 --> 00:07:39.014
Absolutely.
00:07:39.014 --> 00:07:46.689
So yeah, I used, um, Lindell and Perry's, PADM, action decision model in a lot of my building fires work.
00:07:46.689 --> 00:07:51.759
But it actually was developed, uh, very much out of large scale hazards.
00:07:51.759 --> 00:07:53.348
And so that's what it's based on.
00:07:53.348 --> 00:07:58.209
Um, and so it was sort of bringing that disaster lens to building fires.
00:07:58.209 --> 00:08:08.499
And so when I moved over to Wildfire research, it is absolutely at the core of what I do when I'm studying evacuation decisions.
00:08:08.499 --> 00:08:17.245
So, 100% it is a, a model that I use to develop the questions that I ask when I talk to bushfire survivors.
00:08:17.245 --> 00:08:25.975
And then it's certainly a lens that I use when I try to understand what people, uh, were doing, how did they decide to evacuate or not.
00:08:25.975 --> 00:08:29.690
But I've sort of moved a little bit from that, research, um.
00:08:29.690 --> 00:08:34.395
Not just looking at evacuation decisions, but looking at a few other things.
00:08:34.815 --> 00:08:35.669
Which are,
00:08:36.107 --> 00:08:46.638
So a lot of my work in the last, I would say three years, has been looking at what people do after they decide whether or not they evacuate.
00:08:46.638 --> 00:08:53.327
And so there's quite been quite a bit of work, and it was actually a keynote that I gave at the IFSS during the pandemic.
00:08:53.327 --> 00:09:04.104
that there has been a lot of work already in Australia and Canada and the US and abroad, um, on what influences people to evacuate or not.
00:09:04.104 --> 00:09:11.364
What is of a focus in our research is what people do after
00:09:11.427 --> 00:09:11.846
Mm-hmm.
00:09:11.964 --> 00:09:12.504
decision.
00:09:12.504 --> 00:09:15.894
So that's where I've been focusing a lot of my research.
00:09:15.894 --> 00:09:21.864
So it has been, and I'm presenting on this at the next IFSS, which I'm very excited.
00:09:21.864 --> 00:09:26.394
What are the factors that influence people's decision?
00:09:26.394 --> 00:09:28.453
Of where they go for safety.
00:09:28.453 --> 00:09:38.443
So a lot of times we know, um, from some of the research that's out there, actually a lot of it is in hurricanes in the us uh, that people go to hotels or motels.
00:09:38.443 --> 00:09:47.653
They can go to an evacuation shelter, they can go to a friends and family home, they could go to a caravan park, they could go somewhere else.
00:09:47.653 --> 00:09:52.687
They could maybe stop at a parking lot one night if they're really in a, an urgent situation.
00:09:52.687 --> 00:09:59.976
But what we really want to know from this research is where do people go for safety and why?
00:09:59.976 --> 00:10:05.753
The other questions that I'm asking as part of this research is, how do people get there?
00:10:05.753 --> 00:10:08.182
So do they ride share?
00:10:08.182 --> 00:10:11.153
And that's a lot of Steven Wong's work actually in Canada.
00:10:11.153 --> 00:10:13.105
do they take their personal vehicle?
00:10:13.105 --> 00:10:14.846
Do they take multiple vehicles?
00:10:14.846 --> 00:10:15.655
Are they.
00:10:15.655 --> 00:10:22.030
a trailer along with them, and maybe they've got their horses, um, that they're, that they're traveling with.
00:10:22.030 --> 00:10:25.660
We're trying to understand where do people go for safety?
00:10:25.660 --> 00:10:27.130
How do they get there?
00:10:27.130 --> 00:10:33.941
In what mode of transport and, and what route are they taking on the roadways, um, to get there.
00:10:33.941 --> 00:10:39.005
So it's a lot of work and it's been really, really interesting in what we've been finding.
00:10:39.443 --> 00:10:42.798
What's the ultimate relevancy of that, or practical relevancy of that?
00:10:42.798 --> 00:10:54.797
I mean, in building evacuation, if I think about the, the, the stuff that happens after a person decided, I mean, I would broadly put it in my pre evacuation time, distribution term.
00:10:54.797 --> 00:10:56.027
So for me.
00:10:56.027 --> 00:11:00.312
It kind of ends up into it a delay factor.
00:11:00.312 --> 00:11:02.711
I mean, I wish I would model that better.
00:11:02.711 --> 00:11:13.138
I wish I could include for way finding and you know, the fact that we're doing today, the visibility work, perhaps, you know, those things couple together beautifully.
00:11:13.138 --> 00:11:32.008
It's just not yet feasible to do that, uh, kind of work where you could combine, if you can see the sign and, and what decisions do you take and what we are finding to take, uh, regardless, like I, I, I would be looking for a specific time delay to put in my model because I'm ultimately interested in a AOT
00:11:32.277 --> 00:11:32.496
Yes.
00:11:32.799 --> 00:11:34.210
in wildfire.
00:11:34.210 --> 00:11:35.559
How does it look like
00:11:35.798 --> 00:11:36.038
yeah.
00:11:36.038 --> 00:11:37.988
I mean, that's a, a really great question.
00:11:37.988 --> 00:11:38.798
Why do we care?
00:11:38.798 --> 00:11:39.758
Why, why do we care
00:11:39.855 --> 00:11:40.995
this is important?
00:11:40.995 --> 00:11:41.559
Why?
00:11:44.258 --> 00:11:45.217
Why am I doing this?
00:11:45.217 --> 00:11:46.988
Yeah, that's right.
00:11:46.988 --> 00:11:49.149
And so You're absolutely right.
00:11:49.149 --> 00:11:53.860
There could be back of the envelope calculations that people make when we're thinking about wildfire.
00:11:53.860 --> 00:12:02.994
a lot of the assumptions that we make when we're thinking about how long people will take to evacuate a community are pretty optimistic assumptions.
00:12:02.994 --> 00:12:23.453
So we assume, for example, in the models that we use, or in the back of the envelope calculations for just traffic calculations that we make, that people go from point A where they start directly to point B and they take, a lot of times we assume that they take the fastest route or the quickest option.
00:12:23.453 --> 00:12:26.135
Yeah, that's right.
00:12:26.135 --> 00:12:28.686
Whatever Google Map says is the quickest way to get there.
00:12:28.686 --> 00:12:31.056
That's, that's what we assume people will take.
00:12:31.056 --> 00:12:37.206
maybe we assume that they will split themselves equally across the road networks.
00:12:37.206 --> 00:12:41.706
Um, and that also helps with quicker evacuation of a community.
00:12:41.706 --> 00:12:45.666
And we also assume that they don't come back in with that.
00:12:45.666 --> 00:12:52.769
They're actually just going directly to safety and they're not taking additional trips and a lot of these assumptions.
00:12:52.769 --> 00:13:02.130
I I think the last one that I'll mention is that in a lot of the models that we use, we assume a particular percentage of background traffic.
00:13:02.130 --> 00:13:06.061
And so those are people who aren't going directly to safety.
00:13:06.061 --> 00:13:07.681
They could be driving through.
00:13:07.681 --> 00:13:14.431
The problem is we don't have a lot of data on how much back background traffic should we assume.
00:13:14.431 --> 00:13:19.134
So it's really up to the user and then also with the.
00:13:19.134 --> 00:13:26.400
optimistic assumptions, we could be wildly underestimating how long a community takes to evacuate.
00:13:26.400 --> 00:13:30.870
Uh, people aren't always going the quickest route.
00:13:30.870 --> 00:13:38.461
They are likely to go a familiar route or a route that may include back roads because they're trying to avoid roadblocks.
00:13:38.461 --> 00:13:41.791
Um, we also know that they don't go directly to safety.
00:13:41.791 --> 00:13:46.591
We know that they're doing a lot of other things within the community and traveling around on the roadways.
00:13:46.591 --> 00:13:58.081
And when we're not taking that into account, or even when we don't understand what that looks like, a we can't assign a, a delay to it because we don't quite know yet what it is.
00:13:58.081 --> 00:14:03.567
And if we just assign a delay to it, we may not really truly.
00:14:03.567 --> 00:14:10.782
Be modeling the intricacies of what's happening and potentially underestimating the total evacuation time.
00:14:10.782 --> 00:14:22.631
So I am trying to help us get a little bit closer to what's actually happening on the roadways, so we have a better idea of how long a community will actually take to evacuate.
00:14:23.027 --> 00:14:35.241
So in that case, it's both the capacity of the roots and also how much stress that evacuation will put on the, uh, firefighters and, and the policemen and everyone around.
00:14:35.241 --> 00:14:35.542
Right.
00:14:35.841 --> 00:14:36.860
That's exactly right.
00:14:36.860 --> 00:14:39.500
So it's definitely a capacity on the roadway issue.
00:14:39.500 --> 00:14:45.801
So if people are traveling around, they're coming back to their homes, they're visiting neighbors, they're evacuating together,
00:14:46.072 --> 00:14:46.192
I.
00:14:46.370 --> 00:14:54.831
means that they're still on the roadways in fire affected areas, and there isn't as much capacity available for people moving directly to safety.
00:14:54.831 --> 00:14:58.370
We also need to take into account, as you said, how.
00:14:58.370 --> 00:15:03.471
The emergency services are using the roadways where they may be setting up roadblocks.
00:15:03.471 --> 00:15:05.390
What does that mean for evacuation?
00:15:05.390 --> 00:15:25.071
And the other thing that we're sort of on the tip of the iceberg for understanding, and I wanted to highlight, um, Constanza Flores, who is a PhD student at University of Canterbury in, in addition to RMIT, she's looking at, uh, potentially in tsunami, but it's very relevant for fires.
00:15:25.071 --> 00:15:30.650
People who are in heavy congestion, potentially leaving their cars and walking.
00:15:30.673 --> 00:15:30.832
Okay.
00:15:31.160 --> 00:15:41.484
And so that's another thing is because we potentially may have vehicles on the roadways for various reasons, and car abandonment may be one of them, accidents may be another.
00:15:41.484 --> 00:15:51.413
And that could be additional capacity taken up that we're not accounting for in any of our models part, particularly when we're trying to model worst case scenarios.
00:15:51.782 --> 00:16:06.455
This is very interesting, especially like, you know, the aspect of, of people coming back if I, again, normalize it to my building scenario and you know, I have my capacity of staircase basically.
00:16:06.455 --> 00:16:12.475
complete, you know, there it is just filled with people and someone decides, oh no, I, I want to go back five floors up.
00:16:12.475 --> 00:16:17.365
This creates a, a, like, not just a bottleneck, it's even more than a bottleneck.
00:16:17.365 --> 00:16:21.865
It's like a shockwave, uh, through, through the, you know, ongoing process.
00:16:21.865 --> 00:16:27.414
I, I, I struggle to imagine how a person could return back against a stream of evacuating people.
00:16:27.414 --> 00:16:41.804
I, assume if you have an endless stream of vehicles and people escaping, someone trying to, you know, go the other way, could, could also create such effects and those could propagate in the network.
00:16:41.993 --> 00:16:42.113
Y.
00:16:42.113 --> 00:16:43.207
Absolutely.
00:16:43.207 --> 00:16:47.227
And what we need to think about is not necessarily always people going back.
00:16:47.227 --> 00:16:57.802
These are people sort of from their original point, they're moving around and so they're, they're moving on the road network but not necessarily directly to safety.
00:16:57.802 --> 00:17:11.051
And so we need to sort of think about, they're on the roadways, potentially visiting a neighbor and then maybe they visit another neighbor and maybe they go back to, you know, help someone out and maybe they go and check on someone else's pets.
00:17:11.051 --> 00:17:19.271
And so it's sort of this movement around the road network within fire affected areas that we don't have a good sense of.
00:17:19.271 --> 00:17:20.592
So it might be that.
00:17:20.592 --> 00:17:24.343
Some areas have congestion, maybe some areas don't.
00:17:24.343 --> 00:17:37.452
But when we assume that people go directly from point A to B, we're not taking into account this other sort of, these flows that are going on within fire affected areas that are taking up capacity on the roadways.
00:17:37.452 --> 00:17:41.930
And the other thing that we see our people, like you said, are coming back.
00:17:41.930 --> 00:17:53.390
So they might be going to a location, dropping off some, a vehicle, coming back, getting another vehicle, and then coming back and maybe bringing, getting their pets and evacuating for good.
00:17:53.390 --> 00:17:57.377
And so that also could be, you know, some trouble.
00:17:57.377 --> 00:18:03.948
But we're, we're not necessarily thinking of complete congestion, not like we would have in a stairway in a building.
00:18:03.948 --> 00:18:14.147
This isn't always the case, but again, it's this sort of flow of people moving around rather than from fire affected area out.
00:18:14.147 --> 00:18:18.258
It's like, you know, moving, moving around and.
00:18:18.258 --> 00:18:22.746
creating other dynamics that we're actually not modeling in, in real
00:18:22.823 --> 00:18:37.146
Okay, but, well, this is really, really complex to grasp because let's assume you have evacuated community and you know that George went to Josh and had to pick, uh, his cat because he's outside and you mapped his interactions and you knew who went where.
00:18:37.146 --> 00:18:44.073
You can probably model that, but if you are on a blank page, you have a community of 1000 people.
00:18:44.589 --> 00:18:44.799
Hmm.
00:18:44.877 --> 00:18:47.553
How, how, how are you supposed to include for that?
00:18:48.055 --> 00:18:48.355
Yeah.
00:18:48.355 --> 00:18:51.144
So we don't have enough data to do that yet.
00:18:51.222 --> 00:18:51.603
Okay.
00:18:51.724 --> 00:18:56.515
we're trying to understand are the factors that influence that kind of movement.
00:18:56.515 --> 00:19:01.111
And I do have, one paper that I've developed from our interviews.
00:19:01.111 --> 00:19:05.736
there's been some work also from some Fire, A fire in Israel as well.
00:19:05.736 --> 00:19:16.227
Um, where they have this is At least five years ago, I believe they've done this work, um, to try to understand these intermediate trips is what we're
00:19:16.278 --> 00:19:16.699
Mm-hmm.
00:19:17.126 --> 00:19:47.156
So I think once we have a better sense of what are the factors that influence these types of trips and whether or not they're trips within a fire affected area or trips outside that come back in, then I think we'll be able to at least identify some percentage of background traffic that is leads based on a little bit more reality than what we have now, which is zero data, um, to, to try to get at some of these capacity issues.
00:19:47.156 --> 00:19:55.864
I don't think we're ever gonna get at mapping exactly what everyone's doing at any one time, we need to be able to get a little bit closer.
00:19:55.864 --> 00:19:59.013
And I think we, once we have a sense of, okay.
00:19:59.013 --> 00:20:04.365
This is a stronger knit community, so they're more likely to do a lot of internal movement.
00:20:04.365 --> 00:20:08.938
And this is a, community that has stronger connections.
00:20:08.938 --> 00:20:14.067
I don't know, 20 Ks away, but, so they're more likely to do a little bit of back and forth.
00:20:14.067 --> 00:20:25.121
Then we can start to maybe get a little bit more accurate with at least modeling our background traffic and trying to get at implicitly modeling some of these intermediate trips.
00:20:25.679 --> 00:20:41.523
I, I once, you know, I once thought that Orwell is 1984 is science fiction, but now I see it's more like a manual and I, my mind is in, in quite, uh, you know, sad, uh, prediction for a very dystopian future.
00:20:41.523 --> 00:20:44.733
So we might actually be able to do what you just said, you know,
00:20:45.185 --> 00:20:45.405
Yes,
00:20:45.634 --> 00:20:47.223
but, uh, perhaps,
00:20:47.306 --> 00:20:48.306
I, I know what you're saying.
00:20:48.306 --> 00:20:48.586
Yes.
00:20:48.693 --> 00:21:04.096
but, but perhaps at large, you know, just knowing the probabilities of how many people would do those side trips would give you enough to, it kind of, it kind of looks like a turbulence problem in a flow, you know, like you have, uh, or a gust problem in the wind.
00:21:04.096 --> 00:21:10.936
You have your average, uh, wind velocity and you have some gusts, which, which, which will change a little bit every now and then.
00:21:10.936 --> 00:21:12.767
So, so I, I like it a lot.
00:21:13.239 --> 00:21:27.989
this is why I love speaking with very curious engineers like yourself, because sometimes I'm very much in the social science space and so I wanna learn and dig in and then you'll sit and ask me, yeah, okay, but how do we, how are we gonna model that?
00:21:27.989 --> 00:21:31.888
So I love, that's what I love about interdisciplinary research and
00:21:31.977 --> 00:21:32.057
Hmm,
00:21:32.669 --> 00:21:38.398
teams is because you need both of those sort of minds thinking in that way.
00:21:38.398 --> 00:21:41.368
Like, okay, I'm going to get into the social sciences of this.
00:21:41.368 --> 00:21:49.259
I really wanna understand what people are doing and why, and then let's sit and think about how are we actually gonna calculate, quantify this, I mean to say.
00:21:49.259 --> 00:21:50.519
So I love that.