Program, Abstracts, and Slides

PROGRAM

START: 8.45 AM, June 12 2018.

ABSTRACTS

NetSciDraw

Matthew Dabrowski, Bradley Dreher, Chukwudi Kanu, Jake Lewis, Eli Shirk, and Hiroki Sayama

SLIDES

One of the critical problems facing many K-12 education communities is that children are

not educated to think nonlinearly taking interrelationships and interdependencies into

consideration. To address this issue, we have been developing "NetSciDraw", a simple

interactive web-based application that allows users to draw and express their ideas using

nodes and edges, helping them to think in more creative nonlinear ways rather than in

linear paths. The primary grades of focus are ranged from K to 12 so that the children

can begin to think about solving problems with networks early on in their academic

careers. NetSciDraw has been presented and demonstrated at several different venues,

receiving a lot of positive feedback as well as requests for specific features. The

current stable version is v. 3.1, which is available from the following URL:

http://coco.binghamton.edu/netscidraw/index.html

Applying non-technical Network Literacy in Higher Professional education – lessons learned in the Netherlands

Paul van der Cingel, Business and Economics Department, Windesheim University, THE NETHERLANDS

SLIDES

In the context of higher professional education in the Netherlands, this talk will address three questions: 1. If networks are “truly ubiquitous”, why are they so rare in educational curricula? 2. Should this be cause for concern? 3. How can non-technical Network Literacy help students tackle complex problems? To answer these questions, Paul van der Cingel will share lessons learned at Windesheim University of Applied Sciences in the Netherlands. Experimental workshops were held at various departments, ranging from Applied Gerontology to Business & Information Management. In these workshops, network visualization proved to be instrumental in teaching students basic Network Literacy concepts and to let them apply the concepts to real-world complex problems.

Building interactive Web contents for the Project, "Network Science in Your Pocket"

Toshihiro Tanizawa, National Institute of Technology, Kochi College, JAPAN

"Network Science in Your Pocket" is a project that enables teachers to give a series of

lectures on various topics of network science at any place even outside campus with tiny

one-board computing devices. Though to construct an actual system on such a device is

surely an indispensable step for the project, to provide a rich amount of contents for

various educational purposes is also important. In this talk, I will show concrete

examples for building interactive Web contents for the Pocket Project using a

combination of existing programming frameworks built with python and javascript.

Concept Networks in Science Education: Their uses in Teaching and Research

Ismo Koponen, Department of Physics, University of Helsinki, FINLAND

[LINK TO PUBLICATION]

Concept maps, which are network-like visualisations of the inter-linkages between concepts, are used in teaching and learning as representations of students' understanding of conceptual knowledge. Here we propose a method based on network analysis to examine such concept maps and to find key concepts within the maps. Towards this end, concept maps are analysed as directed and weighted networks, where nodes are concepts and links represent diverse types of connections between concepts, and where each link is assumed to provide epistemic support to the node it is connected to. The notion of key concept can then be operationalised through the directed flow of information from one node to another in terms of communicability between the nodes. We show that communicability is a simple and reliable way to identify the key concepts and examine their epistemic justification within the network. The communicabilities of the key nodes in the collated network are compared with communicabilities averaged over the set of 12 individual concept maps. The comparison shows the collated network contains more extensive collection of key concepts with better epistemic support than the ensemble of individual networks. The consequences of this notion for the practical role of peer-to-peer learning are discussed.

SciEd project: Multilayer network between science and education

Lyubov Tupikina, Laboratoire de Physique de la Matiere, Ecole Polytechnique, FRANCE

E-TALK

In my talk I will present our new project, SciEd network, created in 2017. This

scientific-educational project was initiated by network scientists and it aims at

building multilayer networks between networks of schools and scientists. Our scheme is

simple: a scientist travels to some city for conference or personal visit and SciEd

organises a lecture for him in that city. Our goal is to manage and maintain stable

interactions in the SciEd network. One of the scientific goals is to gather and analyze

the data of travelling scientists and how one can provide new additional tools for

education in different countries. SciEd network already includes France, Germany, Russia,

Uruguay, the Netherlands, Nepal and India and it managed at the open platform at

https://networkscied.wordpress.com. In the closest future we plan to collect, analyze

and share data for travelling scientists in order to use the information to enrich

school education and create new projects between schools and scientists.

Can we teach network theory through a board game?

Giacomo Scettri, IFISC, Universitat de les Illes Balears, SPAIN

SLIDES

To explore this opportunity, we designed a board game where the basic concepts of network

theory, from nodes and links to degree distribution and centrality measures are

implemented. These abstract ideas are here rendered more accessible through a physical

medium. In particular, players will have to design commercial routes in the

Mediterranean Sea, spreading their economy across all the nodes of a trading network,

which will be created as the interaction among the sea lanes of all the players develops.

Motivated by the need of finding optimal strategies for growing their business, players

will meet the abstract concepts of network theory with an inductive approach,

complementary and more accessible then the formal one. In this talk we will illustrate

the main rules and concepts implemented in the game and show the first results obtained

in high and elementary schools.

Complex Forma Mentis: Building scientific links for understanding a complex world

Massimo Stella, Institute for Complex Systems Simulation, University of Southampton, UK

Complex Forma Mentis is a hybrid research/outreach programme aimed at quantifying and

understanding the perception that high school students have towards STEM subjects. The

research component of the project is based on cognitive network science and it involves

lab experiments and surveys for building forma mentis networks, i.e. networks of free

associations among scientific concepts provided by students, teachers and researchers,

respectively. In 2017, the project involved 159 students, 12 teachers and 59 researchers

in cognitive experiments. Students were also involved in the outreach component of the

project, as they attended brief seminars revolving around the importance of STEM subjects

for modelling and understanding complex systems close to their daily experience such as

crowds, social systems and traffic. These seminars served as prototypes for designing

longer and more advanced courses about complexity science and they met the interest of

educators and school deans.

This talk will focus on the research component of Complex Forma Mentis, highlighting the

methodological approach of forma mentis networks and discussing their potential for

quantitatively identifying how students perceive and understand science.

CONTRIBUTED ABSTRACTS:

A Network Science Summer Course for High School Students

Florian Klimm, Oxford Mathematical Institute, University of Oxford, UK

Benjamin F. Maier, Department of Physics, Humboldt University of Berlin, GERMANY

SLIDES

Teaching network science has been identified as an important endavour, because it is a

concept usually omitted in high school curricula. Based on the success of earlier,

short outreach events we decided to design a two-week summer course for German high

school pupils with the topic Networks and Complex Systems.

The course combined different didactic elements as lectures, student presentations,

problem sheets, programming exercises in Python, and smaller modules. The latter

included the creation of random graphs with the help of dice and the reproduction of

results from a research article. The pupils also created a floor plan network of the

school buildng at which the summer school was located and simulated the outbreak of

infectious diseases via Susceptible-Infected dynamics.

We think that network science is an appropriate topic to give pupils and introduction

to university-level science and mathematics, even for those that are not naturally

interested in such topics. We discuss various encountered challenges such as the

disparity in mathematical foundations or pre-existing programming experience and how

we approached them and to what extent our attempts were successful. We make our

teaching material available online at: https://github.com/floklimm/network-summer-school.

The "Small World" of Psychology: How do novices and experts

represent their conceptual knowledge structure of psychological science?

Cynthia S. Q. Siew and Thomas Hills, Department of Psychology, University of Warwick, UK

SLIDES

Cognitive representation of knowledge domains can be represented by topics (nodes) and

relationships between them (edges). How this changes in response to experience is an

indicator of domain fluency and, correspondingly, expertise. This presentation will

demonstrate how the combination of methods commonly used in the area of quantitative

knowledge representation in the cognitive sciences (i.e., the category fluency and

free associations tasks), as well as computational linguistics and network science

approaches can be used to characterize and quantify students' and experts' domain

knowledge in the area of psychology. Preliminary data from fluency and association

tasks completed by psychology students and psychology experts will be presented to

illustrate how network analysis can be used to (i) uncover structural differences in

the psychology association networks of novices and experts, and (ii) investigate

difference in the way that novices and experts navigate and search through a complex

semantic network representation of the psychological sciences. Implications for

research in the cognitive and educational sciences focusing on investigating how

students' conceptual structure of a subject matter influences learning and academic

performance and how novices acquire "expert-like" knowledge structures will be

discussed.

Entering the network world

Francesca Caloro, University of Salento and Sezione INFN Lecce, ITALY

SLIDES

This talk deals with my first experience with complex networks. I will report on how I

became acquainted with the basic notions concerning this subject, my understanding of

its relevance nowadays, and the impact on my education and curricular planning.

I came across network science by chance because there were no dedicated classes in my

graduate physics program. In fact, I had never heard about this field until I was

proposed to carry out a study on semantic networks as an exam topic within a course on

theoretical methods for nonlinear systems. This assignment involved an overview of

growing network processes from preferential attachment (Barabasi-Albert and closeness

centrality), the acquisition of principles of Python programming and the implementation

of a code to compare theoretical and numerical results.

Several contributions to my personal development have come from this experience:

1) I was introduced to the stimulating "networks world". This provided me with a new

vision of how mathematical notions have a surprising variety of applications, including

this very experience.

2) I had a first glimpse of what doing research and being part of a scientific team

means. In fact, my work was made possible as the result of a team composed of my

professor, a junior researcher and myself. A posteriori, I would say that this

represents a "network experiment based on a network experiment": the team was a small

social network itself, weighted on the basis of the individual working skills (e.g.

adaptability, prior knowledge). From this experience, I can conclude that small

networks with high weights could be very effective both in the acquisition of new

knowledge and in promoting solutions to problems through a better understanding of

networks.

3) My experience suggests that the spread of network theory is possible even when

network-oriented educational programs are not available. The exam project was a

fortuitous event but it proved that network theory can be introduced in some classes

with low effort, despite traditional syllabi not accounting for such a possibility.

This approach would definitely promote and increasing interest and the consequent

establishment of specific network-oriented courses, which offer transversal skills

of major relevance for many job opportunities.

From nets to networks: Network seeding for enhancing knowledge

Mario Angelelli, University of Salento and Sezione INFN Lecce, ITALY

SLIDES

The development of new technologies involving a large amount of data is drastically

changing both research and teaching methods. Despite the spread of efficient

techniques for dealing with data, specific situations may require different approaches

to manage them and make knowledge out of them. This raises the issue of scales in

knowledge-based social networks: we look at subnetworks (contexts) with small number

of interacting agents, but embedded and interconnected within larger networks with

slower characteristic time scales.

The focus on methods for an intensive investigation of such networks leads to

different types (or aspects) of interactions. This approach fits within various

cultural and social networks in Italy, including Academia and with special

reference to Southern Italy: they are organised as a system of several local

subnetworks, e.g. multilayer network, rather than a single-layer structure.

At least two dynamic scales coexist: a bottom-up dynamics driven by the actions

of small groups of agents, and a top-down one that originates from institutions.

Understanding the extent to which these dynamics are driven by common or different

factors, within a collective framework, could be relevant in the optimization of

cultural (educational, entrepreneurial, research) strategies and, hence, in the

valorization of intellectual capital.

We focus on the first (bottom-up) dynamics and mention two good practices in this

regard. The first is a new approach to enter the philosophy of networks, with a

learn-by-doing process testified by a M.S. student in Physics at University of

Salento (Lecce, IT). The second is the local realisation in Lecce of a national

network of contamination labs (CLab), with a suggestion of a ``network-of-networks''

entrepreneurship by an interdisciplinary work team, which is aimed at the detection

of connections between different (often hidden through large-scale tools) networks

and their role in Cultural and Creative activities. Advantages (in terms of

optimization and valorization) and drawbacks (in terms of energy-expense to create

and develop the network) of this contextual perspective are briefly discussed, in

relation to the results of surveys and auditing of cultural agents and stakeholders

for the Regional Strategic Plan for Culture.

E-POSTERS

Catherine Cramer1, Ralucca Gera2, Michaela Labriole1, Hiroki Sayama4,5,

Lori Sheetz3, Emma Towlson5, and Stephen Uzzo1

1 New York Hall of Science

2 Naval Postgraduate School

3 Center for Leadership and Diversity in STEM, U.S. Military Academy at West Point

4 Center for Collective Dynamics of Complex Systems, Binghamton University

5 Center for Complex Network Research, Northeastern University

The poster is available here.

Five years of Mediterranean School of Complex Networks: Lessons and Outlooks

Manlio De Domenico, Fondazione Bruno Kessler, ITALY The Mediterranean School of Complex Network (MSCx) is an international summer school

taking place every year in Salina island (Sicily, Italy). The goal of MSCx is to provide a theoretical

background to young researchers (Master, PhD, early Postdocs) in the field of complex

networks, with particular attention to current trends in Network Science. The organization

of MSCx, and its strict relationship with the territory, allows us to promote philosophical and scientific exchange between all lecturers and attendants. In this talk we will review the

adapative approach adopted to develop MSCx from its first edition to the fifth one and we

will show the metrics used for the continuous evaluation of its success.

The poster is available here.