Low cost optics: Luminisme

Low cost optics ? The framework

During a workshop in collaboration with a physicist, students in digital creation had to design four devices using smartphones or tablets and involving “traditional” optics. Their goal was to discover the effects of physics to the general public while trying a kind of “cheap” science, namely put in place a simple, effective and surprising effect.

Luminisme : Sylvie, Bernadette and Clara's project

The movie !

Download the tutorial (french)

Le tuto pour fabriquer soi-même la boîte (luminisme)

Sylvie Nguyen, Bernadette Kalaj, Clara Schoenlaub

Authors:

DSAA Design et Création Numérique École Estienne École nationale supérieure des arts et industries graphiques

The Workshop

During a workshop in collaboration with a physicist, students in digital creation had to design four devices using smartphones or tablets and involving “traditional” optics. Their goal was to discover the effects of physics to the general public while trying a kind of “cheap” science, namely put in place a simple, effective and surprising effect.

This workshop was realized within the framework of DSAA Design of Digital Creation of the Ecole Estienne. He was mentored by Florence Jamet-Pinkiewicz, Eric Boisseau, Mehdi Hercberg and Patrick Pleutin in collaboration with Julien Bobroff from the team “La Physique Autrement” (LPS, University Paris-Sud, Paris-Saclay).

The students : Les étudiants : Grégoire Ormières, Alice Sanz, Nathan Agranat, Sylvie Nguyen, Bernadette Kalaj, Théo Rocquancourt, Alice Herbreteau, Marion Robin, Nicolas Christmann, Charlene Brun, Clara Schoenlaub et Solène Lombard

Authors:

Students in scientific illustration have collaborated with a physicist around four major discoveries of quantum physics: the transistor, graphene, Bose-Einstein condensates and new superconductors. For each discovery, they decided to create a laboratory pop-up and a poster in the same graphic style, inspired by the years when the discovery took place. Here is the result. Download – Print – Cut – Tape – Read – it’s done. For you, for your class, for your friends … Click on the discovery of your choice.

1 / 16

Ce travail est le fruit d’une collaboration entre les étudiants du DSAA de Design d’Illustration Scientifique de l’école Estienne et notre groupe. Un projet à l’initiative de Matthieu Lambert (Ecole Estienne) et de Julien Bobroff (Université Paris Sud). Merci à tous les enseignants du DSAA : Antoine Barnaud, Michèle Mabille, Alain Bouaziz, Sterenn Bourgeois-Heudiart, Charlène Letenneur.

Authors:

DSAA DIS, Ecole Estienne

Students in scientific illustration have attempted, in collaboration with physicists, to stage physics equations, and not just any of them: the Schrödinger equation for quantum physics, that of Navier-Stokes for fluid mechanics , the equation of general relativity, and the propagation equation of electromagnetic waves. Each group of students used an original graphic form: the pop-up book, the poetic animation, the comic strip, and the animated gif. Discover and use these productions to understand and stage these fundamental equations.

This work is the result of a collaboration between the DSAA of Scientific Illustration Design of the Estienne school, Julien Bobroff (Univ Paris-Sud) and Roland Lehoucq (CEA-Saclay). Copyright: this entire project is made available under the Creative Commons BY-NC-ND license.

Authors:

DSAA DIS, Ecole Estienne

The outreach course

This course offers an introduction to communication and popularization of science to undergraduate physics students. Each year, some twenty students have been able to develop their own outreach projects around an aspect of fundamental physics for five days. These projects are accompanied by various exercises and courses on science communication. All the projects are presented at the end of the workshop by the students themselves during a public session at the University in front of a large audience.

Le show des étudiants

Show donné le 23 mai 2018 par les étudiants de l’option vulgarisation du magistère de physique d’Orsay (Université Paris-Sud, Université Paris-Saclay).

Un pour la science et Tous pour un

Un des projets réalisé dans le cadre de l’option vulgarisation 2018, Un pour la science et Tous pour un, un projet réalisé par Andréa Blin, Marjorie Galinier, Eloïse Mestre et Anna Ritz

Power Couleur

Un des projets réalisé dans le cadre de l’option vulgarisation 2018, Power Couleur, un projet réalisé par Victor Faraut, Ondine Guerin, Ahmed Ramdane et Marie Vulliet

All the 2018 team

A few pictures from the teaching

Authors:

Licence de Physique Fondamentale, Université Paris-Sud

In 2018, physicists change the way of defining fundamental units like kilograms or meters. Units can now be defined based on scientific methods using only fundamental constants and well-established theories. No more prototypes, stallions or human references. Here are the 7 new “user manuals” to make these units, downloadable under various formats freely.

The manual instructions in video

The manual instructions

1 / 8

The postcards

1 / 14

A few images extracted from the manuals

Graphic Design: Marie Jamon – Physics: Julien Bobroff – A project of “La Physique Autrement”, LPS Paris-Sud University, Paris-Saclay University. A big thank you to Christophe Daussy and Noël Dimarcq for their comments and help.
Copyright: this entire project is made available under the Creative Commons BY-NC-ND license.

Authors:

graphiste et illustratrice scientifique

This course offers an introduction to communication and popularization of science to undergraduate physics students. Each year, some twenty students have been able to develop their own outreach projects around an aspect of fundamental physics for five days. These projects are accompanied by various exercises and courses on science communication. All the projects are presented at the end of the workshop by the students themselves during a public session at the University in front of a large audience.

An article about this course and its evaluation.

"A project-based course about outreach in a physics curiculum"

J. Bobroff, F. Bouquet, Eur. J. Phys. Vol 37 045704 (2016)

The teaching explained in a video

Outreach Class Comics

Heloïse Chochois was embedded in the outreach class, and made a comics from her experience…

Authors:

Licence de Physique Fondamentale, Université Paris-Sud

On the occasion of the year of superconductivity, in 2011, we had the opportunity to present an object in front of the Eiffel Tower. We then decided, with the designer A. Echasseriau, to make a small superconducting Eiffel Tower in the axis in the real one. Each floor of the Tower levitates with magnets placed above superconducting lozenges cooled with liquid nitrogen. This Eiffel Tower could then be “visited” by more than 20 000 tourists and bystanders. And since then she continues to be shown on different occasions.

The superconducting Eiffel Tower in a 20 seconds video

A diaporama

1 / 16

The superconducting Eiffel Tower by Universcience

The Eiffel Tower on the Trocadero parvis.

The Eiffel Tower by night

Created by the designer Alexandre Echasseiau,  in collaboration with J. Bobroff and F. Bouquet, during the year of superconductivity, supported by INP of CNRS and University Paris Sud. Each floor levitates with magnets floating above cuprate superconductors cooled with liquid nitrogen.

Authors:

Superconductivity a story about electrøns

Matter is made of billions of billions of very tiny particles: electrons, neutrons, protons… These particles are invisible and behave in a peculiar way, sometimes like clouds or waves in the sea, other times like small balls. They are known as “quantum” particles.

 

In this booklet, with scissors and scotch tape, we invite you to build yourself one electron, then a second one, and at the end, the weirdest object in the quantum world: a superconductor, a material able to levitate on magnets! These models are not real electrons of course, but they will help you get a better feeling for what is actually happening inside the matter around us.

Extrait - Paire de C(oo)per

À très basse température, dans un supraconducteur, les électrons dansent deux par deux.

Quand on refroidit énormément certains métaux, ils deviennent supraconducteurs. Cela veut dire que soudain, les électrons qui s’y déplacent ne subissent plus aucun choc : il n’y a plus de résistance électrique, et ça ne chauffe plus.

 

Comment est-ce possible?

 

D’abord, les électrons se mettent par deux, et forment ce qu’on appelle une «paire de Cooper », car c’est Léon Cooper, un physicien américain, qui les a découvertes. Une fois deux par deux, ils parviennent à se mettre tous ensemble et former une seule onde !

Un peu comme quand pleins de poissons dans la mer forment un banc de poissons et se déplacent tous  ensembles, ou quand des élèves se rangent en rang quand la sonne cloche.

How to build yourself your Cooper Pair

How to build your electron

This is a product of a collaboration between the graphic school Ecole Estienne with the student Cyril Conton and J. Bobroff, thanks to the support of Triangle de la Physique, l’INP of CNRS and Université Paris Sud. This project is also distributed now by Cité des Sciences.

Copyright : this project is made available under the Creative Commons License BY-NC-ND

Authors:

Parcours DSAA DIS, Ecole Estienne, Parcours Master Multimédia Interactif - Sorbonne nouvelle
École nationale supérieure des arts et industries graphiques

Authors: