Medien Wiki - User contributions [en]

GMU:Life in an aquatic ecosystem

2024-12-09T17:07:14Z

Juyoun Oh:

''Lecturer(s):'' [[:Category:Mindaugas Gapševičius|Mindaugas Gapševičius]] & Alessandro Volpato

''Credits:'' 4 [[SWS]]

Date: Mondays, 15:30-18.30

''Venue:'' DIY Biolab @ [[Marienstraße 7b]], [[Marienstraße 7b/202|Room 202]]

''First meeting:'' 21.10.2024

[[Workshop on redesigning wetland]]: 18.10.2024, @ 13:30-18:30 (everyone is welcome)

Last semester, we started a rainwater pond in the campus garden. The onset of a tiny freshwater body created space for a small ecosystem to set on, and generated additional motivation to study the microbes colonizing the pond, from an artistic perspective.

The upcoming semester we will concentrate on its evolving ecosystem: Who lives there, which microbes colonized it first, what do their interactions look like and what are the effects of human intervention on the development of the ecosystem?

During the course we will observe how different species interact within this aquatic ecosystem, track the evolution of the outside natural pond and compare it with a laboratory artificial replica of it.

We have outlined several experiments that we will begin with:

1) Compare the microbiomes in different parts of the pond;

2) Hunt, domesticate, grow and release tardigrades into the pond and see how they adapt to it;

3) Study growth conditions of different photosynthetic organisms in presence or absence of fundamental nutrients;

The experiments are designed to teach students how methods used in the life sciences can be applied in arts and how their use can lead to a different quality in an artwork. The experiments will shed light on how, for example, lawn fertilizer or the change in pH of water affects the ecosystem. The result of the course is an artistic project documented in the wiki.

Please send your motivation (3-4 sentences) to mindaugas.gapsevicius@uni-weimar.de. Preference will be given to students who want to explore art-science methods and aquatic ecosystems.

== Syllabus ==
*18.10.2024 [[/Preclass]] (Workshop on redesigning wetland) 13:30-18:30
*21.10.2024 [[/Intro]] (Experiments with algae/cyanobacteria)
*28.10.2024 [[/Tardigrades]] (Excursion to Ilm Park and presentations of first ideas)
*04.11.2024 [[/Rainwater garden]]
*11.11.2024 [[/Discussion on works of others]]
*18.11.2024 [[/Introduction of organisms into the wetland]]
*25.11.2024 [[/Progress]] (Inspecting the wetland after the introduction of the organisms)
*02.12.2024-06.12.2024 /excursion to Schiefer Park
*09.12.2024
*16.12.2024
*06.01.2025
*13.01.2025
*20.01.2025
*27.01.2025
*03.02.2025

== Student ==

*[[/Dahye Seo]]
*[[/Cosmo Schüppel]]
*[[/Jan Munske]]
*[[/Negin Ehtesabian]]
*[[/Kaya Leonie Pilsner]]

[[Category:WS24]]
[[Category:Werkmodul]]
[[Category:Fachmodul]]
[[Category:Mindaugas Gapševičius]]
[[Category:Alessandro Volpato]]

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-12-09T17:07:00Z

Juyoun Oh: /* the scene with a boat made of doors to survive in post apocalypse */

GMU:The Plant Plant

2024-11-21T11:14:15Z

Juyoun Oh:

[[:Category:Fachmodul|Werk/Fachmodul]]

''Lecturer:'' [[Christian Doeller]], Klaus Fritze

''Credits:'' 6 [[ECTS]], 4 [[SWS]]

''Times:'' Thursday 13:30 - 17:00

''Venue:'' DIY Electronics Lab (B15 / K07), DIY BioLab (M5 / 202)

''First meeting:'' October 24, 13:30 @ Marienstraße 5, Room 204

[[File:Collage-plantplant.jpg|frameless|1073x1073px]]

Description:

How do plants perceive their environment, how do plants and environments interact? How can we turn these processes into an immersive experience, to what extent can our concepts and technologies do justice to the plant world?

In the agricultural industry, the combination of plant breeding and cybernetics is aimed at optimizing crops. Machine learning and robotics are used to achieve higher yields, disease resistance and climate adaptation.

In the seminar ‘The Plant Plant’, we invite you to put aside any productivity factors and hand over control to the plants. With the help of DIY sensors and microcontrollers, we attempt to measure interactions between plants and their environment and transform the collected real-time data into a dynamic spatial atmosphere. We draw inspiration from cybernetic control systems and provoke various types of feedback between plants, the environment and humans. In the process, we take a critical look at upcoming relationships and effects. Our aim is to collectively develop a speculative sensing space - a human-scale environment whose atmospheric parameters such as light, temperature and air circulation are regulated by our ‘green control center’.

This is a hands-on seminar. It includes three workshops in which we grow plants under different conditions, learn the basics of DIY electronics / sensor technologies and program control systems with Arduino / ESP32 microcontrollers, motor-driven devices and light sources. Furthermore, we discuss corresponding examples of artistic research in the context of media art.

Requirements for participation: Interest in exploring plant environments, enthusiasm for tinkering and experimenting with DIY electronics, commitment to group work and passion for creating speculative spaces of experience. No prior knowledge is necessary, participants need their own computer / laptop.

Please send your registration by Sunday (20 October) via e-mail, subject ‘The Plant Plant’, with a short letter of motivation (3-4 sentences) to christian.doeller@uni-weimar.de.

Participants:
*[[Hanna Bremerich]]
*[[Timo Buhl]]
*[[Fiene Freist]]
*[[Krittaporn Mahaweerarat]]
*[[Annika Müller und Lilli Endres]]
*[[Dania González Sanabria]]
*[[Dyah Setyaningsih]]
*[[Meng-Yun Tsai]]
*Juyoun Oh

Schedule:

'''October 24, 13:30, M5 Room 204'''

*first meeting

'''October 31 - free'''

'''November 1 - November 2, 10:00 - 16:00'''

*Two-day workshop @ DIY Electronics Lab (B15, basement) / DIY Biolab (M5, Room 201)

'''November 7, 13:30 - 17:00, DIY Electronics Lab'''

*discuss workshop results
*form working groups
* first brainstorm in groups
*networking & data exchange
'''November 14, 13:30 - 17:00, DIY Electronics Lab'''
*presentation of artworks / context
*presentation of ideas, feedback
'''November 21, 13:30 - 17:00, DIY Electronics Lab'''
*Progress of ideas / concepts
*starting hands-on sessions: independent work and 1:1 consultations
'''November 28, 13:30 - 17:00, DIY Electronics Lab'''
*hands-on session: independent work and 1:1 consultations
*please note: no class next week
*> time for progress and preparations for midterm presentation
'''December 5, independent work (no official class)'''

'''December 12, 13:30 - 17:00, DIY Electronics Lab'''
*Midterm Presentations
*hands-on session: independent work and 1:1 consultations
'''December 19, 13:30 - 17:00, DIY Electronics Lab'''
*hands-on session: independent work and 1:1 consultations
*preparations Christmas break: to do / to get until first class in January 9?

'''Christmas break'''

'''January 9, 13:30 - 17:00, DIY Electronics Lab'''
*check-in session: progress?
*hands-on session: independent work and 1:1 consultations
'''January 16, 13:30 - 17:00, DIY Electronics Lab'''
*hands-on session: independent work and 1:1 consultations
*Brainstorm Winterwerkschau
'''January 23, 13:30 - 17:00, DIY Electronics Lab'''
*hands-on session: independent work and 1:1 consultations
*Winterwerkschau – concept for space
'''January 30, 13:30 - 17:00, DIY Electronics Lab'''
*hands-on session: independent work and 1:1 consultations
*get ready for Winterwerkschau
'''February 2 – final: Winterwerkschau'''

Topics:
*Growth of plants under different conditions
*Hermetospheres / bottle gardens
* DIY Electronics: Basic Sensors
*DIY Electronics: Basic Actuators
*DIY Electronics: Microcontrollers (Arduino / ESP) and cybernetic control systems
*The basics of cybernetics, recursion, feedback
*Immersive "sensing spaces"

Technology:
*[https://github.com/diyElectronicsLab/ThePlantPlant The Plant Plant - GitHub Repo]

Artists:
*Philippe Parreno
*Ursula Damm
*Marco Barotti
*Cornelia Sollfrank
*Katja Tillbörger
*Robertina Šebjanič
*Agnes Meyer-Brandis
*Hicham Berrada
*Ingo Vetter, Annette Weisser
*Mel Chin
*Maria Thereza Alves
*...

Literature:
*Donella Meadows''':''' ''Thinking in Systems. A Primer''
*Ludwig von Bertalaffny: ''General Systems Theory''
*Jagadish Chandra Bose Die Pflanzen Schrift und ihre Offenbarungen. https://books.google.de/books/about/Die_Pflanzen_Schrift_und_ihre_Offenbarun.html?id=n5sYAAAAIAAJ&redir_esc=y
*Gustav Theodor Fechner: Nanna: On the Mental Life of Plants https://www.amazon.de/Nanna-%C3%9Cber-das-Seelenleben-Pflanzen/dp/3843014280
*Peter Tompkins/Christopher Bird: The Secret Life of Plants https://www.amazon.de/Secret-Life-Plants-Fascinating-Emotional/dp/0060915870
*Floriane Koechlin: Plants whispers- A journey through new realms of science https://lenos.ch/buecher/plant-whispers/isbn:978-3-85787-939-5<nowiki/>Plants - sensing movement: https://academic.oup.com/plphys/article/187/3/1131/6359831
*Charles Darwin: '''The Power of Movements in plants''' (publ.1880) https://darwin-online.org.uk/EditorialIntroductions/Freeman_ThePowerofMovementinPlants.html
*Emanuelle Coccia: https://www.deutschlandfunk.de/emanuele-coccia-die-wurzeln-der-welt-pflanzen-atmen-aus-was-100.html
*Lynn Margulis: '''Symbiotic Planet:''' A New Look At Evolution (1999) https://www.amazon.de/Symbiotic-Planet-New-Look-Evolution/dp/0465072720<nowiki/>Movie: Symbiotic Earth: How Lynn Margulis rocked the boat and started a scientific revolution https://mubi.com/de/de/films/symbiotic-earth-how-lynn-margulis-rocked-the-boat-and-started-a-scientific-revolution

*...

Language & skill level:
*The module will be held in English, unless all participants are speaking German.
*No prior knowledge is required.

Criteria for passing:
*be on time, attend the classes, be active
*develop a prototype for The Plant Plant
*document your work on the wiki page

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-11T14:03:54Z

Juyoun Oh:

= the scene with a boat made of doors to survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]

background context : ...After the flood flooded the whole world, there is a boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

my idea :

technical implementation of the project : **light paddle or light (***) from Lahaina noon / Lahaina moon?

[[File:제목 없는 아트워크 5.jpg|thumb|650x650px]]

[[File:MIMG_6464.jpg|left|445x445px]]

===References===
*Arc of Noah
*Titanic
*[https://en.wikipedia.org/wiki/Charon Charon]
*Viking
*[https://www.google.com/search?q=Gordon+Matta-Clark+cut+houses&udm=2 Gordon Matta-Clark]

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-11T14:02:21Z

Juyoun Oh:

= the scene with a boat made of doors to survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]

background context : ...After the flood flooded the whole world, there is a boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

my idea :

technical implementation of the project : **light paddle or light (***) from Lahaina noon

[[File:제목 없는 아트워크 5.jpg|thumb|650x650px]]

[[File:MIMG_6464.jpg|left|445x445px]]

===References===
*Arc of Noah
*Titanic
*[https://en.wikipedia.org/wiki/Charon Charon]
*Viking
*[https://www.google.com/search?q=Gordon+Matta-Clark+cut+houses&udm=2 Gordon Matta-Clark]

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-11T12:38:21Z

Juyoun Oh:

= the scene with a boat made of doors to survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]

background context : ...After the flood flooded the whole world, there is a boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

my idea :

technical implementation of the project : <nowiki>**</nowiki>paddle

[[File:제목 없는 아트워크 5.jpg|thumb|650x650px]]

[[File:MIMG_6464.jpg|left|445x445px]]

===References===
*Arc of Noah
*Titanic
*[https://en.wikipedia.org/wiki/Charon Charon]
*Viking
*[https://www.google.com/search?q=Gordon+Matta-Clark+cut+houses&udm=2 Gordon Matta-Clark]

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-11T12:38:03Z

Juyoun Oh:

= the scene with a boat made of doors to survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]

background context : ...After the flood flooded the whole world, there is a boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

my idea :

technical implementation of the project : <nowiki>**</nowiki>paddle

[[File:제목 없는 아트워크 5.jpg|thumb|650x650px]]

[[File:MIMG_6464.jpg|left|445x445px]]

why?

===References===
*Arc of Noah
*Titanic
*[https://en.wikipedia.org/wiki/Charon Charon]
*Viking
*[https://www.google.com/search?q=Gordon+Matta-Clark+cut+houses&udm=2 Gordon Matta-Clark]

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-11T12:37:49Z

Juyoun Oh: /* References */

= the scene with a boat made of doors to survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]

background context : ...After the flood flooded the whole world, there is a boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

my idea :

technical implementation of the project : <nowiki>**</nowiki>paddle

[[File:제목 없는 아트워크 5.jpg|thumb|650x650px]]

[[File:MIMG_6464.jpg|left|445x445px]]

===References===
*Arc of Noah
*Titanic
*[https://en.wikipedia.org/wiki/Charon Charon]
*Viking
*[https://www.google.com/search?q=Gordon+Matta-Clark+cut+houses&udm=2 Gordon Matta-Clark]

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-11T12:37:22Z

Juyoun Oh:

= the scene with a boat made of doors to survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]

background context : ...After the flood flooded the whole world, there is a boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

my idea :

technical implementation of the project : <nowiki>**</nowiki>paddle

[[File:제목 없는 아트워크 5.jpg|thumb|650x650px]]

[[File:MIMG_6464.jpg|left|445x445px]]

===References===
*Arc of Noah
*Titanic
*[https://en.wikipedia.org/wiki/Charon Charon]
*Viking
*[https://www.google.com/search?q=Gordon+Matta-Clark+cut+houses&udm=2 Gordon Matta-Clark]

File:제목 없는 아트워크 5.jpg

2024-11-11T12:34:29Z

Juyoun Oh:

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-11T12:33:21Z

Juyoun Oh: /* a boat made of doors to survive in post apocalypse */

= the scene with a boat made of doors to survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]

background context : A boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

my idea :

technical implementation of the project.

...After the flood flooded the whole world

<nowiki>**</nowiki>paddle

[[File:MIMG 6464.jpg|600px]]

===References===
*Arc of Noah
*Titanic
*[https://en.wikipedia.org/wiki/Charon Charon]
*Viking
*[https://www.google.com/search?q=Gordon+Matta-Clark+cut+houses&udm=2 Gordon Matta-Clark]

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-11T12:33:02Z

Juyoun Oh:

= a boat made of doors to survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]

background context : A boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

my idea :

technical implementation of the project.

...After the flood flooded the whole world

<nowiki>**</nowiki>paddle

[[File:MIMG 6464.jpg|600px]]

===References===
*Arc of Noah
*Titanic
*[https://en.wikipedia.org/wiki/Charon Charon]
*Viking
*[https://www.google.com/search?q=Gordon+Matta-Clark+cut+houses&udm=2 Gordon Matta-Clark]

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-11T12:00:54Z

Juyoun Oh: /* a boat made of doors to survive in post apocalypse */

= a boat made of doors to survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]

background context :

my idea :

technical implementation of the project.

A boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

...After the flood flooded the whole world

<nowiki>**</nowiki>paddle

[[File:MIMG 6464.jpg|600px]]

===References===
*Arc of Noah
*Titanic
*[https://en.wikipedia.org/wiki/Charon Charon]
*Viking
*[https://www.google.com/search?q=Gordon+Matta-Clark+cut+houses&udm=2 Gordon Matta-Clark]

GMU:The Plant Plant

2024-11-07T12:00:59Z

Juyoun Oh: .

[[:Category:Fachmodul|Werk/Fachmodul]]

''Lecturer:'' [[Christian Doeller]], Klaus Fritze

''Credits:'' 6 [[ECTS]], 4 [[SWS]]

''Times:'' Thursday 13:30 - 17:00

''Venue:'' DIY Electronics Lab (B15 / K07), DIY BioLab (M5 / 202)

''First meeting:'' October 24, 13:30 @ Marienstraße 5, Room 204

[[File:Collage-plantplant.jpg|frameless|1073x1073px]]

Description:

How do plants perceive their environment, how do plants and environments interact? How can we turn these processes into an immersive experience, to what extent can our concepts and technologies do justice to the plant world?

In the agricultural industry, the combination of plant breeding and cybernetics is aimed at optimizing crops. Machine learning and robotics are used to achieve higher yields, disease resistance and climate adaptation.

In the seminar ‘The Plant Plant’, we invite you to put aside any productivity factors and hand over control to the plants. With the help of DIY sensors and microcontrollers, we attempt to measure interactions between plants and their environment and transform the collected real-time data into a dynamic spatial atmosphere. We draw inspiration from cybernetic control systems and provoke various types of feedback between plants, the environment and humans. In the process, we take a critical look at upcoming relationships and effects. Our aim is to collectively develop a speculative sensing space - a human-scale environment whose atmospheric parameters such as light, temperature and air circulation are regulated by our ‘green control center’.

This is a hands-on seminar. It includes three workshops in which we grow plants under different conditions, learn the basics of DIY electronics / sensor technologies and program control systems with Arduino / ESP32 microcontrollers, motor-driven devices and light sources. Furthermore, we discuss corresponding examples of artistic research in the context of media art.

Requirements for participation: Interest in exploring plant environments, enthusiasm for tinkering and experimenting with DIY electronics, commitment to group work and passion for creating speculative spaces of experience. No prior knowledge is necessary, participants need their own computer / laptop.

Please send your registration by Sunday (20 October) via e-mail, subject ‘The Plant Plant’, with a short letter of motivation (3-4 sentences) to christian.doeller@uni-weimar.de.

Participants:
*

Schedule:

'''October 24, 13:30, M5 Room 204'''

* first meeting

'''October 31 - free'''

'''November 1 - November 2, 10:00 - 16:00'''

* Two-day workshop @ DIY Electronics Lab (B15, basement) / DIY Biolab (M5, Room 201)

'''November 7, 13:30 - 17:00, DIY Electronics Lab'''

* discuss workshop results
* form working groups
* first brainstorm in groups
* networking & data exchange

Topics:
*Growth of plants under different conditions
*Hermetospheres / bottle gardens
*DIY Electronics: Basic Sensors
*DIY Electronics: Basic Actuators
*DIY Electronics: Microcontrollers (Arduino / ESP) and cybernetic control systems
*The basics of cybernetics, recursion, feedback
*Immersive "sensing spaces"

Technology:
* [https://github.com/diyElectronicsLab/ThePlantPlant The Plant Plant - GitHub Repo]

Artists:
*Philippe Parreno
*Ursula Damm
*Marco Barotti
*Cornelia Sollfrank
*Katja Tillbörger
*Robertina Šebjanič
*Agnes Meyer-Brandis
*Hicham Berrada
*Ingo Vetter, Annette Weisser
*Mel Chin
*...

Literature:
*Donella Meadows''':''' ''Thinking in Systems. A Primer''
*Ludwig von Bertalaffny: ''General Systems Theory''
*Jagadish Chandra Bose Die Pflanzen Schrift und ihre Offenbarungen. https://books.google.de/books/about/Die_Pflanzen_Schrift_und_ihre_Offenbarun.html?id=n5sYAAAAIAAJ&redir_esc=y
*Gustav Theodor Fechner: Nanna: On the Mental Life of Plants https://www.amazon.de/Nanna-%C3%9Cber-das-Seelenleben-Pflanzen/dp/3843014280
*Peter Tompkins/Christopher Bird: The Secret Life of Plants https://www.amazon.de/Secret-Life-Plants-Fascinating-Emotional/dp/0060915870
*Floriane Koechlin: Plants whispers- A journey through new realms of science https://lenos.ch/buecher/plant-whispers/isbn:978-3-85787-939-5<nowiki/>Plants - sensing movement: https://academic.oup.com/plphys/article/187/3/1131/6359831
*Charles Darwin: '''The Power of Movements in plants''' (publ.1880) https://darwin-online.org.uk/EditorialIntroductions/Freeman_ThePowerofMovementinPlants.html
*Emanuelle Coccia: https://www.deutschlandfunk.de/emanuele-coccia-die-wurzeln-der-welt-pflanzen-atmen-aus-was-100.html
*Lynn Margulis: '''Symbiotic Planet:''' A New Look At Evolution (1999) https://www.amazon.de/Symbiotic-Planet-New-Look-Evolution/dp/0465072720<nowiki/>Movie: Symbiotic Earth: How Lynn Margulis rocked the boat and started a scientific revolution https://mubi.com/de/de/films/symbiotic-earth-how-lynn-margulis-rocked-the-boat-and-started-a-scientific-revolution

*...

Language & skill level:
*The module will be held in English, unless all participants are speaking German.
*No prior knowledge is required.

Criteria for passing:
*be on time, attend the classes, be active
*develop a prototype for The Plant Plant
*document your work on the wiki page

GMU:The Plant Plant

2024-11-07T12:00:18Z

Juyoun Oh:

[[:Category:Fachmodul|Werk/Fachmodul]]

''Lecturer:'' [[Christian Doeller]], Klaus Fritze

''Credits:'' 6 [[ECTS]], 4 [[SWS]]

''Times:'' Thursday 13:30 - 17:00

''Venue:'' DIY Electronics Lab (B15 / K07), DIY BioLab (M5 / 202)

''First meeting:'' October 24, 13:30 @ Marienstraße 5, Room 204

[[File:Collage-plantplant.jpg|frameless|1073x1073px]]

Description:

How do plants perceive their environment, how do plants and environments interact? How can we turn these processes into an immersive experience, to what extent can our concepts and technologies do justice to the plant world?

In the agricultural industry, the combination of plant breeding and cybernetics is aimed at optimizing crops. Machine learning and robotics are used to achieve higher yields, disease resistance and climate adaptation.

In the seminar ‘The Plant Plant’, we invite you to put aside any productivity factors and hand over control to the plants. With the help of DIY sensors and microcontrollers, we attempt to measure interactions between plants and their environment and transform the collected real-time data into a dynamic spatial atmosphere. We draw inspiration from cybernetic control systems and provoke various types of feedback between plants, the environment and humans. In the process, we take a critical look at upcoming relationships and effects. Our aim is to collectively develop a speculative sensing space - a human-scale environment whose atmospheric parameters such as light, temperature and air circulation are regulated by our ‘green control center’.

This is a hands-on seminar. It includes three workshops in which we grow plants under different conditions, learn the basics of DIY electronics / sensor technologies and program control systems with Arduino / ESP32 microcontrollers, motor-driven devices and light sources. Furthermore, we discuss corresponding examples of artistic research in the context of media art.

Requirements for participation: Interest in exploring plant environments, enthusiasm for tinkering and experimenting with DIY electronics, commitment to group work and passion for creating speculative spaces of experience. No prior knowledge is necessary, participants need their own computer / laptop.

Please send your registration by Sunday (20 October) via e-mail, subject ‘The Plant Plant’, with a short letter of motivation (3-4 sentences) to christian.doeller@uni-weimar.de.

Participants:
*Juyoun Oh

Schedule:

'''October 24, 13:30, M5 Room 204'''

* first meeting

'''October 31 - free'''

'''November 1 - November 2, 10:00 - 16:00'''

* Two-day workshop @ DIY Electronics Lab (B15, basement) / DIY Biolab (M5, Room 201)

'''November 7, 13:30 - 17:00, DIY Electronics Lab'''

* discuss workshop results
* form working groups
* first brainstorm in groups
* networking & data exchange

Topics:
*Growth of plants under different conditions
*Hermetospheres / bottle gardens
*DIY Electronics: Basic Sensors
*DIY Electronics: Basic Actuators
*DIY Electronics: Microcontrollers (Arduino / ESP) and cybernetic control systems
*The basics of cybernetics, recursion, feedback
*Immersive "sensing spaces"

Technology:
* [https://github.com/diyElectronicsLab/ThePlantPlant The Plant Plant - GitHub Repo]

Artists:
*Philippe Parreno
*Ursula Damm
*Marco Barotti
*Cornelia Sollfrank
*Katja Tillbörger
*Robertina Šebjanič
*Agnes Meyer-Brandis
*Hicham Berrada
*Ingo Vetter, Annette Weisser
*Mel Chin
*...

Literature:
*Donella Meadows''':''' ''Thinking in Systems. A Primer''
*Ludwig von Bertalaffny: ''General Systems Theory''
*Jagadish Chandra Bose Die Pflanzen Schrift und ihre Offenbarungen. https://books.google.de/books/about/Die_Pflanzen_Schrift_und_ihre_Offenbarun.html?id=n5sYAAAAIAAJ&redir_esc=y
*Gustav Theodor Fechner: Nanna: On the Mental Life of Plants https://www.amazon.de/Nanna-%C3%9Cber-das-Seelenleben-Pflanzen/dp/3843014280
*Peter Tompkins/Christopher Bird: The Secret Life of Plants https://www.amazon.de/Secret-Life-Plants-Fascinating-Emotional/dp/0060915870
*Floriane Koechlin: Plants whispers- A journey through new realms of science https://lenos.ch/buecher/plant-whispers/isbn:978-3-85787-939-5<nowiki/>Plants - sensing movement: https://academic.oup.com/plphys/article/187/3/1131/6359831
*Charles Darwin: '''The Power of Movements in plants''' (publ.1880) https://darwin-online.org.uk/EditorialIntroductions/Freeman_ThePowerofMovementinPlants.html
*Emanuelle Coccia: https://www.deutschlandfunk.de/emanuele-coccia-die-wurzeln-der-welt-pflanzen-atmen-aus-was-100.html
*Lynn Margulis: '''Symbiotic Planet:''' A New Look At Evolution (1999) https://www.amazon.de/Symbiotic-Planet-New-Look-Evolution/dp/0465072720<nowiki/>Movie: Symbiotic Earth: How Lynn Margulis rocked the boat and started a scientific revolution https://mubi.com/de/de/films/symbiotic-earth-how-lynn-margulis-rocked-the-boat-and-started-a-scientific-revolution

*...

Language & skill level:
*The module will be held in English, unless all participants are speaking German.
*No prior knowledge is required.

Criteria for passing:
*be on time, attend the classes, be active
*develop a prototype for The Plant Plant
*document your work on the wiki page

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-04T15:32:21Z

Juyoun Oh: /* a boat made of doors to survive in post apocalypse */

= a boat made of doors to survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]

A boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

...After the flood flooded the whole world

<nowiki>**</nowiki>paddle

[[File:MIMG 6464.jpg|600px]]

===References===
*Arc of Noah
*Titanic
*[https://en.wikipedia.org/wiki/Charon Charon]
*Viking

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-04T15:31:58Z

Juyoun Oh: /* a boat made of doors to survive in post apocalypse */

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-04T15:23:22Z

Juyoun Oh: /* a boat made of doors to survive in post apocalypse */

= a boat made of doors to survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]A boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

...After the flood flooded the whole world

<nowiki>**</nowiki>paddle

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-04T15:10:51Z

Juyoun Oh: /* a boat made of doors to survive in post apocalypse */

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-04T15:03:45Z

Juyoun Oh: /* a boat made of doors to survive in post apocalypse */

= a boat made of doors to survive in post apocalypse =
[[File:Doorshandles.jpg|thumb]]

[[File:Unknown-14.jpg|center|thumb]]A boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

File:Doorshandles.jpg

2024-11-04T15:03:31Z

Juyoun Oh:

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-04T14:34:26Z

Juyoun Oh: /* a boat made of doors to survive in post apocalypse */

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-04T13:58:18Z

Juyoun Oh: /* a boat made of doors in survive in post apocalypse */

= a boat made of doors in survive in post apocalypse =

[[File:Unknown-14.jpg|center|thumb]]A boat made entirely of old, mismatched doors, each with its handles and peeling paint intact, assembled to form a rustic, recycled hull, even door handles are found on the doors.

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-04T13:55:58Z

Juyoun Oh: /* Post Apocalypse */

= a boat made of doors in survive in post apocalypse =
[[File:Unknown-14.jpg|center|thumb]]

GMU:Life in an aquatic ecosystem/Juyoun Oh

2024-11-04T13:51:25Z

Juyoun Oh: .

= Post Apocalypse =
[[File:Unknown-14.jpg|center|thumb]]

File:Unknown-14.jpg

2024-11-04T13:50:25Z

Juyoun Oh:

GMU:Non-machines/Juyoun Oh

2024-07-26T10:27:01Z

Juyoun Oh:

== '''<big>Paidia, Hopscotch</big>''' ==
[[File:Falling .png|thumb|left]]
<blockquote>

Bauhaus-University Weimar

2023 Winter semester

Juyoun Oh</blockquote>

This work is inspired by the book

“The Wretched of the Screen”by Hito Styerl

'''“Similarities between military system and entertainment”'''

'''such as GPS'''

'''“…over the past few years, visual culture has become saturated'''

'''with aerial military and entrainment images. ”'''

[[File:Diagram10122023.png|left|thumb|952x952px]]

''Diagram to develop the idea''

.

In recent decades, our lives have been filled with entertainment spectacles that are unwittingly based on military technology. The book I read prior to this project, "The Wretched of the Screen" by Hito Steyerl, was quite fascinating, and the sections that referenced and explored the parallels between military systems and entertainment provoked profound reflection on the ongoing conflict currently. In particular, there was a passage in the book that referred to "the ongoing Israeli-Palestinian war... (hereinafter omitted)," which was published over a decade ago, made me question whether we can actually escape the repetition of war. I would also like to say that as a citizen born and raised in South Korea, where with constant threat of conflict has exhausted me, but living in the only ceasefire country in the world has subconsciously made me more sensitive to these references than others.

This chain of thoughts made me reflect on the repetition of war and how things are progressing regardless of our efforts, and I felt helpless. It occurred to me that we are like pawns being played for a predetermined game, moving without realising that we are the "pawns" being moved, and I began to play with this helplessness in my work. Based on this reflection, I started to work on interacting with the audience. For this, I decided to make a performance which audiences will be playing or performing inspired by the traditional Korean game of “Hopscotch(Ddangddameokki in Korean)”, which is played with a ball. The rules of the game are as follows.

[[File:Image33.png|left|thumb]]

# Draw a large square or circle.
# Draw a small hand-sized circle in each corner.
# Each player bounces the ball three times from their piece of land, and if it bounces back to their piece of land, that piece of land becomes theirs.
# If the ball doesn't return to your land within three bounces, it's your opponent's turn.
# The game continues until there is no empty land, and the player with the most land wins.

In this game, participants play with a three-dimensional object named "Trajectoid" as the "piece" of the game. However, this object is a ball that rolls along a predetermined path, symbolising the lack of alternatives to our actions. Despite the illusion of choice, the trajectory of the game is fixed, which reflects our inability to change the predetermined outcome, and the audience's efforts to deviate from the path we've already set for ourselves feel like a futile effort. The participants try their best, but despite the fact that the game is ultimately limited to a predetermined outcome, they do not realise this and continue to try to beat the game, which coincides with the feeling that we are trapped in a cycle of repeated collisions, thus the game maximises the illusion that we have the right to choose and encourages us to think about how our actions affect the determined outcome.

The current stage of the work is to experiment with an object called "Trajectoid" and a map for this game, and we presented this experimental stage at the last Winterwerkschau. The plan is to reach the first stage of completion of this work in the upcoming new semester.

REFERENCE :

'''Book:''' Hito Steyerl. The Wretched of the Screen. Sternberg Press, 2012.

'''Website:''' JooHyeon Heo. “Trajectoids: Creating a shape that rolls along a desired path” Techplore, <nowiki>https://techxplore.com/news/2023-09-trajectoids-desired-path.html</nowiki>.

What is '''trajectoid'''?

[[File:Trajectoids-creating-a.jpg|left|thumb|788x788px]]

.

.

The concept of rolling objects traditionally brings to mind cylinders or spheres that roll in straight lines. However, researchers are exploring unique shapes like oloids and sphericons, which roll in non-linear paths. These shapes are valuable for applications such as moving objects more efficiently or mixing ingredients thoroughly. Scientists have taken this idea further by designing 3D objects, called "trajectoids," that can follow a predetermined path on a slightly inclined table without slipping. The path must be periodic, consisting of identical repeating segments, and never go uphill. The challenge was to create a shape that rolls down the table, precisely following the drawn path. To achieve this, scientists envisioned starting with a smooth basketball covered in flexible material, trimming it to form a custom shape that follows the desired path. They successfully 3D printed these trajectoids and tested them, demonstrating that trajectoids can be designed to complete two path periods for each full revolution. This two-periods-per-revolution property is significant in 3D rotations and has applications in quantum computing and quantum optics. For instance, the Bloch sphere in quantum physics represents quantum states, similar to how a rolling sphere follows a path. The trajectoid algorithm can help verify the accuracy of quantum computers by comparing changes in qubit states to the motion of a rolling trajectoid.

Additionally, this mathematical insight has implications for MRI technology. Proton spin states in MRI are analogous to trajectoid orientation. By understanding how proton spins return to their original state after specific radio wave pulses, scientists can improve MRI accuracy and disease diagnosis.

Researchers have even provided an online tool for generating 3D-printing files for custom trajectoids, encouraging further experimentation and application of this fascinating concept.

'''Process'''

First step. To design the '''path''' of the trajectoid
[[File:Firststep.png|left|thumb|951x951px]]

.

.

.

Second step. To generate the program for making trajectoid in '''3D Process'''
[[File:Bildschirmfoto 2024-07-26 um 11.19.51.png|left|thumb|902x902px]]

Third step. To 3D print the object

[[File:Bildschirmfoto 2024-07-26 um 11.19.57.png|left|thumb|1022x1022px]]

Forth step. Map experiment with agar

[[File:Bildschirmfoto 2024-07-26 um 11.20.01.png|left|thumb|975x975px|....]]

'''Exhibition for the winterwerkschau 2023'''
[[File:Image-exbihition1.png|left|thumb|745x745px]]

[[File:Image-winterwerkschau.png|left|thumb|841x841px]]

.

.

.

.

.

== References ==
First opium war -- connection to social media as a drug

Faraday cage -- idea for a bunker

Aldous Huxley -- Brave New World (New Longman Literature), the drug SOMA

survailance cameras -- pigeon camera used in ww2

dehumanising war

GMU:Non-machines/Juyoun Oh

2024-07-26T10:26:03Z

Juyoun Oh:

== '''<big>Paidia, Hopscotch</big>''' ==
[[File:Falling .png|thumb|left]]
<blockquote>

Bauhaus-University Weimar

2023 Winter semester

Juyoun Oh</blockquote>

This work is inspired by the book

“The Wretched of the Screen”by Hito Styerl

'''“Similarities between military system and entertainment”'''

'''such as GPS'''

'''“…over the past few years, visual culture has become saturated'''

'''with aerial military and entrainment images. ”'''

[[File:Diagram10122023.png|left|thumb|952x952px]]

''Diagram to develop the idea''

In recent decades, our lives have been filled with entertainment spectacles that are unwittingly based on military technology. The book I read prior to this project, "The Wretched of the Screen" by Hito Steyerl, was quite fascinating, and the sections that referenced and explored the parallels between military systems and entertainment provoked profound reflection on the ongoing conflict currently. In particular, there was a passage in the book that referred to "the ongoing Israeli-Palestinian war... (hereinafter omitted)," which was published over a decade ago, made me question whether we can actually escape the repetition of war. I would also like to say that as a citizen born and raised in South Korea, where with constant threat of conflict has exhausted me, but living in the only ceasefire country in the world has subconsciously made me more sensitive to these references than others.

This chain of thoughts made me reflect on the repetition of war and how things are progressing regardless of our efforts, and I felt helpless. It occurred to me that we are like pawns being played for a predetermined game, moving without realising that we are the "pawns" being moved, and I began to play with this helplessness in my work. Based on this reflection, I started to work on interacting with the audience. For this, I decided to make a performance which audiences will be playing or performing inspired by the traditional Korean game of “Hopscotch(Ddangddameokki in Korean)”, which is played with a ball. The rules of the game are as follows.

[[File:Image33.png|left|thumb]]

# Draw a large square or circle.
# Draw a small hand-sized circle in each corner.
# Each player bounces the ball three times from their piece of land, and if it bounces back to their piece of land, that piece of land becomes theirs.
# If the ball doesn't return to your land within three bounces, it's your opponent's turn.
# The game continues until there is no empty land, and the player with the most land wins.

In this game, participants play with a three-dimensional object named "Trajectoid" as the "piece" of the game. However, this object is a ball that rolls along a predetermined path, symbolising the lack of alternatives to our actions. Despite the illusion of choice, the trajectory of the game is fixed, which reflects our inability to change the predetermined outcome, and the audience's efforts to deviate from the path we've already set for ourselves feel like a futile effort. The participants try their best, but despite the fact that the game is ultimately limited to a predetermined outcome, they do not realise this and continue to try to beat the game, which coincides with the feeling that we are trapped in a cycle of repeated collisions, thus the game maximises the illusion that we have the right to choose and encourages us to think about how our actions affect the determined outcome.

The current stage of the work is to experiment with an object called "Trajectoid" and a map for this game, and we presented this experimental stage at the last Winterwerkschau. The plan is to reach the first stage of completion of this work in the upcoming new semester.

REFERENCE :

'''Book:''' Hito Steyerl. The Wretched of the Screen. Sternberg Press, 2012.

'''Website:''' JooHyeon Heo. “Trajectoids: Creating a shape that rolls along a desired path” Techplore, <nowiki>https://techxplore.com/news/2023-09-trajectoids-desired-path.html</nowiki>.

What is '''trajectoid'''?

[[File:Trajectoids-creating-a.jpg|left|thumb|788x788px]]

The concept of rolling objects traditionally brings to mind cylinders or spheres that roll in straight lines. However, researchers are exploring unique shapes like oloids and sphericons, which roll in non-linear paths. These shapes are valuable for applications such as moving objects more efficiently or mixing ingredients thoroughly. Scientists have taken this idea further by designing 3D objects, called "trajectoids," that can follow a predetermined path on a slightly inclined table without slipping. The path must be periodic, consisting of identical repeating segments, and never go uphill. The challenge was to create a shape that rolls down the table, precisely following the drawn path. To achieve this, scientists envisioned starting with a smooth basketball covered in flexible material, trimming it to form a custom shape that follows the desired path. They successfully 3D printed these trajectoids and tested them, demonstrating that trajectoids can be designed to complete two path periods for each full revolution. This two-periods-per-revolution property is significant in 3D rotations and has applications in quantum computing and quantum optics. For instance, the Bloch sphere in quantum physics represents quantum states, similar to how a rolling sphere follows a path. The trajectoid algorithm can help verify the accuracy of quantum computers by comparing changes in qubit states to the motion of a rolling trajectoid.

Additionally, this mathematical insight has implications for MRI technology. Proton spin states in MRI are analogous to trajectoid orientation. By understanding how proton spins return to their original state after specific radio wave pulses, scientists can improve MRI accuracy and disease diagnosis.

Researchers have even provided an online tool for generating 3D-printing files for custom trajectoids, encouraging further experimentation and application of this fascinating concept.

'''Process'''

First step. To design the '''path''' of the trajectoid
[[File:Firststep.png|left|thumb|951x951px]]

Second step. To generate the program for making trajectoid in '''3D Process'''
[[File:Bildschirmfoto 2024-07-26 um 11.19.51.png|left|thumb|902x902px]]

Third step. To 3D print the object

[[File:Bildschirmfoto 2024-07-26 um 11.19.57.png|left|thumb|1022x1022px]]

Forth step. Map experiment with agar

[[File:Bildschirmfoto 2024-07-26 um 11.20.01.png|left|thumb|975x975px]]

'''Exhibition for the winterwerkschau 2023'''
[[File:Image-exbihition1.png|left|thumb|745x745px]]

[[File:Image-winterwerkschau.png|left|thumb|841x841px]]

== References ==
First opium war -- connection to social media as a drug

Faraday cage -- idea for a bunker

Aldous Huxley -- Brave New World (New Longman Literature), the drug SOMA

survailance cameras -- pigeon camera used in ww2

dehumanising war

GMU:Non-machines/Juyoun Oh

2024-07-26T10:24:50Z

Juyoun Oh: last

== '''<big>Paidia, Hopscotch</big>''' ==
[[File:Falling .png|center|thumb]]
<blockquote>Bauhaus-University Weimar

2023 Winter semester

Juyoun Oh</blockquote>

This work is inspired by the book

“The Wretched of the Screen”by Hito Styerl

'''“Similarities between military system and entertainment”'''

'''such as GPS'''

'''“…over the past few years, visual culture has become saturated'''

'''with aerial military and entrainment images. ”'''

[[File:Diagram10122023.png|left|thumb|952x952px]]

''Diagram to develop the idea''

In recent decades, our lives have been filled with entertainment spectacles that are unwittingly based on military technology. The book I read prior to this project, "The Wretched of the Screen" by Hito Steyerl, was quite fascinating, and the sections that referenced and explored the parallels between military systems and entertainment provoked profound reflection on the ongoing conflict currently. In particular, there was a passage in the book that referred to "the ongoing Israeli-Palestinian war... (hereinafter omitted)," which was published over a decade ago, made me question whether we can actually escape the repetition of war. I would also like to say that as a citizen born and raised in South Korea, where with constant threat of conflict has exhausted me, but living in the only ceasefire country in the world has subconsciously made me more sensitive to these references than others.

This chain of thoughts made me reflect on the repetition of war and how things are progressing regardless of our efforts, and I felt helpless. It occurred to me that we are like pawns being played for a predetermined game, moving without realising that we are the "pawns" being moved, and I began to play with this helplessness in my work. Based on this reflection, I started to work on interacting with the audience. For this, I decided to make a performance which audiences will be playing or performing inspired by the traditional Korean game of “Hopscotch(Ddangddameokki in Korean)”, which is played with a ball. The rules of the game are as follows.

[[File:Image33.png|left|thumb]]

# Draw a large square or circle.
# Draw a small hand-sized circle in each corner.
# Each player bounces the ball three times from their piece of land, and if it bounces back to their piece of land, that piece of land becomes theirs.
# If the ball doesn't return to your land within three bounces, it's your opponent's turn.
# The game continues until there is no empty land, and the player with the most land wins.

In this game, participants play with a three-dimensional object named "Trajectoid" as the "piece" of the game. However, this object is a ball that rolls along a predetermined path, symbolising the lack of alternatives to our actions. Despite the illusion of choice, the trajectory of the game is fixed, which reflects our inability to change the predetermined outcome, and the audience's efforts to deviate from the path we've already set for ourselves feel like a futile effort. The participants try their best, but despite the fact that the game is ultimately limited to a predetermined outcome, they do not realise this and continue to try to beat the game, which coincides with the feeling that we are trapped in a cycle of repeated collisions, thus the game maximises the illusion that we have the right to choose and encourages us to think about how our actions affect the determined outcome.

The current stage of the work is to experiment with an object called "Trajectoid" and a map for this game, and we presented this experimental stage at the last Winterwerkschau. The plan is to reach the first stage of completion of this work in the upcoming new semester.

REFERENCE :

'''Book:''' Hito Steyerl. The Wretched of the Screen. Sternberg Press, 2012.

'''Website:''' JooHyeon Heo. “Trajectoids: Creating a shape that rolls along a desired path” Techplore, <nowiki>https://techxplore.com/news/2023-09-trajectoids-desired-path.html</nowiki>.

What is '''trajectoid'''?

[[File:Trajectoids-creating-a.jpg|left|thumb|788x788px]]

The concept of rolling objects traditionally brings to mind cylinders or spheres that roll in straight lines. However, researchers are exploring unique shapes like oloids and sphericons, which roll in non-linear paths. These shapes are valuable for applications such as moving objects more efficiently or mixing ingredients thoroughly. Scientists have taken this idea further by designing 3D objects, called "trajectoids," that can follow a predetermined path on a slightly inclined table without slipping. The path must be periodic, consisting of identical repeating segments, and never go uphill. The challenge was to create a shape that rolls down the table, precisely following the drawn path. To achieve this, scientists envisioned starting with a smooth basketball covered in flexible material, trimming it to form a custom shape that follows the desired path. They successfully 3D printed these trajectoids and tested them, demonstrating that trajectoids can be designed to complete two path periods for each full revolution. This two-periods-per-revolution property is significant in 3D rotations and has applications in quantum computing and quantum optics. For instance, the Bloch sphere in quantum physics represents quantum states, similar to how a rolling sphere follows a path. The trajectoid algorithm can help verify the accuracy of quantum computers by comparing changes in qubit states to the motion of a rolling trajectoid.

Additionally, this mathematical insight has implications for MRI technology. Proton spin states in MRI are analogous to trajectoid orientation. By understanding how proton spins return to their original state after specific radio wave pulses, scientists can improve MRI accuracy and disease diagnosis.

Researchers have even provided an online tool for generating 3D-printing files for custom trajectoids, encouraging further experimentation and application of this fascinating concept.

'''Process'''

First step. To design the '''path''' of the trajectoid
[[File:Firststep.png|left|thumb|951x951px]]

Second step. To generate the program for making trajectoid in '''3D Process'''
[[File:Bildschirmfoto 2024-07-26 um 11.19.51.png|left|thumb|902x902px]]

Third step. To 3D print the object

[[File:Bildschirmfoto 2024-07-26 um 11.19.57.png|left|thumb|1022x1022px]]

Forth step. Map experiment with agar
[[File:Bildschirmfoto 2024-07-26 um 11.20.01.png|left|thumb|975x975px]]

'''Exhibition for the winterwerkschau 2023'''
[[File:Image-exbihition1.png|left|thumb|745x745px]]

[[File:Image-winterwerkschau.png|left|thumb|841x841px]]

== References ==
First opium war -- connection to social media as a drug

Faraday cage -- idea for a bunker

Aldous Huxley -- Brave New World (New Longman Literature), the drug SOMA

survailance cameras -- pigeon camera used in ww2

dehumanising war

File:Image-winterwerkschau.png

2024-07-26T10:24:22Z

Juyoun Oh:

File:Image-exbihition1.png

2024-07-26T10:22:58Z

Juyoun Oh:

winter

File:Bildschirmfoto 2024-07-26 um 11.20.01.png

2024-07-26T10:22:03Z

Juyoun Oh:

File:Bildschirmfoto 2024-07-26 um 11.19.57.png

2024-07-26T10:21:37Z

Juyoun Oh:

File:Bildschirmfoto 2024-07-26 um 11.19.51.png

2024-07-26T10:21:04Z

Juyoun Oh:

File:Firststep.png

2024-07-26T10:20:31Z

Juyoun Oh:

File:Image33.png

2024-07-26T10:12:49Z

Juyoun Oh:

how to play

File:Falling .png

2024-07-26T10:09:02Z

Juyoun Oh:

GMU:Non-machines/Juyoun Oh

2024-01-23T14:06:43Z

Juyoun Oh: /* References */

Diagram (10.12.2023)

[[File:Diagram10122023.png|600px]]

<nowiki>**</nowiki> reference for trajectoid

[[File:Trajectoids-creating-a.jpg|left|thumb|1121x1121px]]

[[File:Bildschirmfoto 2024-01-08 um 18.28.22.png|left|thumb|1116x1116px|https://www.youtube.com/watch?v=2lW9HznqsVY]]

Normally when we think of a rolling object, we tend to imagine a cylinder (like a bicycle wheel) or a sphere (like a tennis ball) that will always follow a straight path when rolling. However, the world of mathematics and science is always open to exploring new ideas and concepts. This is why researchers have been studying shapes like oloids, sphericons, and more, which do not roll in straight lines.

All these funky shapes are really interesting to researchers as they can show us new ways to move objects around smoothly and efficiently. For example, imagine reducing the energy required to make a toy robot move, or mixing ingredients more thoroughly with a unique-looking spoon! While these peculiar shapes have been studied before, scientists have now taken it a step further.

Consider a game where you draw a path on a tilted table – similar to tilting a pinball table to make the ball go in a particular direction. Now, try to come up with a 3D object that, when placed at the top of the table, will roll down and exactly follow that path, instead of just going straight down. There are a few other rules of this game: the table needs to be inclined slightly (and not too much), there should be no slipping during rolling, and the initial orientation of the object can be chosen at launch. Plus, the path you draw must never go uphill and must be periodic. It must also consist of identical repeating segments - somewhat like in music rhythm patterns.

The scientists have pondered if it’s possible to find a winning strategy for this game. They wanted to know if, for any given repetitive path, it would be possible to design a shape that can be rolled to follow this path on its own. The goal was to develop a general recipe that would work not just for simple curves, but also for complicated and intertwined paths. The strangely shaped objects created for this purpose were coined as “trajectoids.”

At first glance, it appears impossible for a 3D object to automatically follow a predetermined rolling path while navigating all the angles and curves. However, the scientists started by simplifying the problem. They envisioned starting with a perfectly smooth basketball covered in flexible, trimmable material, akin to clay. By strategically removing portions of the basketball’s cover material that made contact with the table while ensuring the basketball itself always touched the path, it is possible to gradually sculpt the object into a custom shape. This resulting shape would then magically follow the same path when rolling independently. Applying this concept, the scientists successfully devised a new method for creating trajectoids.

These trajectoids aren’t just theoretical; the researchers 3D printed them and conducted successful experiments. They even ventured into making trajectoids that occasionally move uphill or follow self-intersecting paths. You can even try the new algorithm yourself for any path you desire, as the researchers have released an online tool for generating 3D-printing-ready files for trajectoids:

<nowiki>https://colab.research.google.com/drive/1XZ7Lf6pZu6nzEuqt_dUCHormeSbCCMlP</nowiki>

For a trajectoid to be successful, it must follow the periodic path indefinitely, maintaining the same orientation each time it completes a certain number of periods. The crucial aspect is how many path periods the trajectoid completes with one “full revolution,” thereby restoring its orientation. It’s highly unlikely to create a trajectoid that completes one revolution for every path period. But on the other hand, the researchers have shown that designing a trajectoid that completes two path periods for each revolution is almost always possible.

This two-periods-per-revolution property is a manifestation of an astonishing general property of rotations in 3D space and can be used in many fields of science where phenomena can be mathematically described as 3D rotations -- for example, in quantum computing, quantum optics, and classical optics.

In quantum physics, there’s a concept called the “Bloch sphere,” which is used to describe quantum states. These states encompass all the possible situations that a quantum system, such as a quantum bit or qubit, can be in. Just as a sphere rolling along a path provides information about its movement at specific points and orientations, the Bloch sphere represents unique qubit states, with changes in these states mirroring the motion of a rolling sphere.

Given this mathematical similarity, scientists can use the same algorithm for designing trajectoid to help verify the accuracy of quantum computers. Scientists often assess this accuracy by examining how closely a point on the Bloch sphere returns to its original position after specific actions, much like when a trajectoid completes one full revolution and restores its orientation after passing two path periods.

The science of crafting customizable trajectoid is also related to another seemingly unrelated field – disease diagnosis via MRI. “Spin” is a fundamental property of particles like protons, which make up hydrogen atoms in our bodies. Protons behave as tiny magnets, with their “spin” dictating the orientation of their magnetic ‘north’. This property is crucial for Magnetic Resonance Imaging (MRI) machines used in hospitals for patient scans.

To connect this with the Bloch sphere, consider that each point and orientation on the Bloch sphere represents a unique proton spin state, much like our trajectoid’s orientation. MRI machines use powerful magnetic fields to align these proton magnets within the body in one direction. Subsequently, they employ radio waves to disrupt this alignment. As the protons naturally realign themselves, they emit signals that can be measured and used to create detailed internal images.

Understanding how each proton returns to its original point on the Bloch sphere helps scientists differentiate human tissues and identify abnormalities. Mathematically, the proton spin state is analogous to the trajectoid’s orientation, the radio waves represent the path, and the changes in proton spin caused by the radio waves are equivalent to the rolling motion of the trajectoid along the path.

The mathematics behind the trajectoid algorithm reveals how any given MRI radio wave pulse can be finely tuned, such that repeating the pulse twice in succession restores all proton spins to their original state. This insight could potentially enhance MRI machines and improve disease diagnoses with greater accuracy.

<nowiki>**</nowiki> Prototype process
[[File:스크린샷 2024-01-23 오전 9.44.31.png|left|thumb|432x432px|(the path that I drew)]]
[[File:스크린샷 2024-01-23 오전 9.44.40.png|thumb|394x394px]]
[[File:스크린샷 2024-01-23 오전 9.44.46.png|left|thumb|492x492px]]
[[File:스크린샷 2024-01-23 오전 9.44.49.png|thumb|506x506px]]
[[File:스크린샷 2024-01-23 오전 9.43.51.png|left|thumb|517x517px|(3D Modeling)]]
[[File:스크린샷 2024-01-23 오전 9.43.54.png|thumb|488x488px]]

== References ==
First opium war -- connection to social media as a drug

Faraday cage -- idea for a bunker

Aldous Huxley -- Brave New World (New Longman Literature), the drug SOMA

survailance cameras -- pigeon camera used in ww2

dehumanising war

GMU:Non-machines/Juyoun Oh

2024-01-23T14:06:19Z

Juyoun Oh: prototype test

File:스크린샷 2024-01-23 오전 9.44.49.png

2024-01-23T14:03:02Z

Juyoun Oh:

🍅

File:스크린샷 2024-01-23 오전 9.44.46.png

2024-01-23T14:02:40Z

Juyoun Oh:

🍅

GMU:Non-machines/Juyoun Oh

2024-01-23T10:49:39Z

Juyoun Oh:

Diagram (10.12.2023)

[[File:Diagram10122023.png|600px]]

<nowiki>**</nowiki> reference for trajectoid

[[File:Trajectoids-creating-a.jpg|left|thumb|1121x1121px]]

[[File:Bildschirmfoto 2024-01-08 um 18.28.22.png|left|thumb|1116x1116px|https://www.youtube.com/watch?v=2lW9HznqsVY]]

Normally when we think of a rolling object, we tend to imagine a cylinder (like a bicycle wheel) or a sphere (like a tennis ball) that will always follow a straight path when rolling. However, the world of mathematics and science is always open to exploring new ideas and concepts. This is why researchers have been studying shapes like oloids, sphericons, and more, which do not roll in straight lines.

All these funky shapes are really interesting to researchers as they can show us new ways to move objects around smoothly and efficiently. For example, imagine reducing the energy required to make a toy robot move, or mixing ingredients more thoroughly with a unique-looking spoon! While these peculiar shapes have been studied before, scientists have now taken it a step further.

Consider a game where you draw a path on a tilted table – similar to tilting a pinball table to make the ball go in a particular direction. Now, try to come up with a 3D object that, when placed at the top of the table, will roll down and exactly follow that path, instead of just going straight down. There are a few other rules of this game: the table needs to be inclined slightly (and not too much), there should be no slipping during rolling, and the initial orientation of the object can be chosen at launch. Plus, the path you draw must never go uphill and must be periodic. It must also consist of identical repeating segments - somewhat like in music rhythm patterns.

The scientists have pondered if it’s possible to find a winning strategy for this game. They wanted to know if, for any given repetitive path, it would be possible to design a shape that can be rolled to follow this path on its own. The goal was to develop a general recipe that would work not just for simple curves, but also for complicated and intertwined paths. The strangely shaped objects created for this purpose were coined as “trajectoids.”

At first glance, it appears impossible for a 3D object to automatically follow a predetermined rolling path while navigating all the angles and curves. However, the scientists started by simplifying the problem. They envisioned starting with a perfectly smooth basketball covered in flexible, trimmable material, akin to clay. By strategically removing portions of the basketball’s cover material that made contact with the table while ensuring the basketball itself always touched the path, it is possible to gradually sculpt the object into a custom shape. This resulting shape would then magically follow the same path when rolling independently. Applying this concept, the scientists successfully devised a new method for creating trajectoids.

These trajectoids aren’t just theoretical; the researchers 3D printed them and conducted successful experiments. They even ventured into making trajectoids that occasionally move uphill or follow self-intersecting paths. You can even try the new algorithm yourself for any path you desire, as the researchers have released an online tool for generating 3D-printing-ready files for trajectoids:

<nowiki>https://colab.research.google.com/drive/1XZ7Lf6pZu6nzEuqt_dUCHormeSbCCMlP</nowiki>

For a trajectoid to be successful, it must follow the periodic path indefinitely, maintaining the same orientation each time it completes a certain number of periods. The crucial aspect is how many path periods the trajectoid completes with one “full revolution,” thereby restoring its orientation. It’s highly unlikely to create a trajectoid that completes one revolution for every path period. But on the other hand, the researchers have shown that designing a trajectoid that completes two path periods for each revolution is almost always possible.

This two-periods-per-revolution property is a manifestation of an astonishing general property of rotations in 3D space and can be used in many fields of science where phenomena can be mathematically described as 3D rotations -- for example, in quantum computing, quantum optics, and classical optics.

In quantum physics, there’s a concept called the “Bloch sphere,” which is used to describe quantum states. These states encompass all the possible situations that a quantum system, such as a quantum bit or qubit, can be in. Just as a sphere rolling along a path provides information about its movement at specific points and orientations, the Bloch sphere represents unique qubit states, with changes in these states mirroring the motion of a rolling sphere.

Given this mathematical similarity, scientists can use the same algorithm for designing trajectoid to help verify the accuracy of quantum computers. Scientists often assess this accuracy by examining how closely a point on the Bloch sphere returns to its original position after specific actions, much like when a trajectoid completes one full revolution and restores its orientation after passing two path periods.

The science of crafting customizable trajectoid is also related to another seemingly unrelated field – disease diagnosis via MRI. “Spin” is a fundamental property of particles like protons, which make up hydrogen atoms in our bodies. Protons behave as tiny magnets, with their “spin” dictating the orientation of their magnetic ‘north’. This property is crucial for Magnetic Resonance Imaging (MRI) machines used in hospitals for patient scans.

To connect this with the Bloch sphere, consider that each point and orientation on the Bloch sphere represents a unique proton spin state, much like our trajectoid’s orientation. MRI machines use powerful magnetic fields to align these proton magnets within the body in one direction. Subsequently, they employ radio waves to disrupt this alignment. As the protons naturally realign themselves, they emit signals that can be measured and used to create detailed internal images.

Understanding how each proton returns to its original point on the Bloch sphere helps scientists differentiate human tissues and identify abnormalities. Mathematically, the proton spin state is analogous to the trajectoid’s orientation, the radio waves represent the path, and the changes in proton spin caused by the radio waves are equivalent to the rolling motion of the trajectoid along the path.

The mathematics behind the trajectoid algorithm reveals how any given MRI radio wave pulse can be finely tuned, such that repeating the pulse twice in succession restores all proton spins to their original state. This insight could potentially enhance MRI machines and improve disease diagnoses with greater accuracy.

[[File:스크린샷 2024-01-23 오전 9.43.51.png|left|thumb|517x517px]]
[[File:스크린샷 2024-01-23 오전 9.43.54.png|thumb|488x488px]]

[[File:스크린샷 2024-01-23 오전 9.44.31.png|left|thumb|512x512px]]
[[File:스크린샷 2024-01-23 오전 9.44.40.png|thumb]]

== References ==
First opium war -- connection to social media as a drug

Faraday cage -- idea for a bunker

Aldous Huxley -- Brave New World (New Longman Literature), the drug SOMA

survailance cameras -- pigeon camera used in ww2

dehumanising war

File:스크린샷 2024-01-23 오전 9.44.40.png

2024-01-23T10:49:26Z

Juyoun Oh:

try_1

File:스크린샷 2024-01-23 오전 9.44.31.png

2024-01-23T10:49:04Z

Juyoun Oh:

try_1

File:스크린샷 2024-01-23 오전 9.43.54.png

2024-01-23T10:48:02Z

Juyoun Oh:

try_1

File:스크린샷 2024-01-23 오전 9.43.51.png

2024-01-23T10:47:35Z

Juyoun Oh:

try_1

File:스크린샷 2024-01-23 오전 9.43.47.png

2024-01-23T10:46:09Z

Juyoun Oh:

GMU:Non-machines/Juyoun Oh

2024-01-08T17:35:41Z

Juyoun Oh:

Diagram (10.12.2023)

[[File:Diagram10122023.png|600px]]

<nowiki>**</nowiki> reference for trajectoid

[[File:Trajectoids-creating-a.jpg|left|thumb|1121x1121px]]

[[File:Bildschirmfoto 2024-01-08 um 18.28.22.png|left|thumb|1116x1116px|https://www.youtube.com/watch?v=2lW9HznqsVY]]

Normally when we think of a rolling object, we tend to imagine a cylinder (like a bicycle wheel) or a sphere (like a tennis ball) that will always follow a straight path when rolling. However, the world of mathematics and science is always open to exploring new ideas and concepts. This is why researchers have been studying shapes like oloids, sphericons, and more, which do not roll in straight lines.

All these funky shapes are really interesting to researchers as they can show us new ways to move objects around smoothly and efficiently. For example, imagine reducing the energy required to make a toy robot move, or mixing ingredients more thoroughly with a unique-looking spoon! While these peculiar shapes have been studied before, scientists have now taken it a step further.

Consider a game where you draw a path on a tilted table – similar to tilting a pinball table to make the ball go in a particular direction. Now, try to come up with a 3D object that, when placed at the top of the table, will roll down and exactly follow that path, instead of just going straight down. There are a few other rules of this game: the table needs to be inclined slightly (and not too much), there should be no slipping during rolling, and the initial orientation of the object can be chosen at launch. Plus, the path you draw must never go uphill and must be periodic. It must also consist of identical repeating segments - somewhat like in music rhythm patterns.

The scientists have pondered if it’s possible to find a winning strategy for this game. They wanted to know if, for any given repetitive path, it would be possible to design a shape that can be rolled to follow this path on its own. The goal was to develop a general recipe that would work not just for simple curves, but also for complicated and intertwined paths. The strangely shaped objects created for this purpose were coined as “trajectoids.”

At first glance, it appears impossible for a 3D object to automatically follow a predetermined rolling path while navigating all the angles and curves. However, the scientists started by simplifying the problem. They envisioned starting with a perfectly smooth basketball covered in flexible, trimmable material, akin to clay. By strategically removing portions of the basketball’s cover material that made contact with the table while ensuring the basketball itself always touched the path, it is possible to gradually sculpt the object into a custom shape. This resulting shape would then magically follow the same path when rolling independently. Applying this concept, the scientists successfully devised a new method for creating trajectoids.

These trajectoids aren’t just theoretical; the researchers 3D printed them and conducted successful experiments. They even ventured into making trajectoids that occasionally move uphill or follow self-intersecting paths. You can even try the new algorithm yourself for any path you desire, as the researchers have released an online tool for generating 3D-printing-ready files for trajectoids:

<nowiki>https://colab.research.google.com/drive/1XZ7Lf6pZu6nzEuqt_dUCHormeSbCCMlP</nowiki>

For a trajectoid to be successful, it must follow the periodic path indefinitely, maintaining the same orientation each time it completes a certain number of periods. The crucial aspect is how many path periods the trajectoid completes with one “full revolution,” thereby restoring its orientation. It’s highly unlikely to create a trajectoid that completes one revolution for every path period. But on the other hand, the researchers have shown that designing a trajectoid that completes two path periods for each revolution is almost always possible.

This two-periods-per-revolution property is a manifestation of an astonishing general property of rotations in 3D space and can be used in many fields of science where phenomena can be mathematically described as 3D rotations -- for example, in quantum computing, quantum optics, and classical optics.

In quantum physics, there’s a concept called the “Bloch sphere,” which is used to describe quantum states. These states encompass all the possible situations that a quantum system, such as a quantum bit or qubit, can be in. Just as a sphere rolling along a path provides information about its movement at specific points and orientations, the Bloch sphere represents unique qubit states, with changes in these states mirroring the motion of a rolling sphere.

Given this mathematical similarity, scientists can use the same algorithm for designing trajectoid to help verify the accuracy of quantum computers. Scientists often assess this accuracy by examining how closely a point on the Bloch sphere returns to its original position after specific actions, much like when a trajectoid completes one full revolution and restores its orientation after passing two path periods.

The science of crafting customizable trajectoid is also related to another seemingly unrelated field – disease diagnosis via MRI. “Spin” is a fundamental property of particles like protons, which make up hydrogen atoms in our bodies. Protons behave as tiny magnets, with their “spin” dictating the orientation of their magnetic ‘north’. This property is crucial for Magnetic Resonance Imaging (MRI) machines used in hospitals for patient scans.

To connect this with the Bloch sphere, consider that each point and orientation on the Bloch sphere represents a unique proton spin state, much like our trajectoid’s orientation. MRI machines use powerful magnetic fields to align these proton magnets within the body in one direction. Subsequently, they employ radio waves to disrupt this alignment. As the protons naturally realign themselves, they emit signals that can be measured and used to create detailed internal images.

Understanding how each proton returns to its original point on the Bloch sphere helps scientists differentiate human tissues and identify abnormalities. Mathematically, the proton spin state is analogous to the trajectoid’s orientation, the radio waves represent the path, and the changes in proton spin caused by the radio waves are equivalent to the rolling motion of the trajectoid along the path.

The mathematics behind the trajectoid algorithm reveals how any given MRI radio wave pulse can be finely tuned, such that repeating the pulse twice in succession restores all proton spins to their original state. This insight could potentially enhance MRI machines and improve disease diagnoses with greater accuracy.

== References ==
First opium war -- connection to social media as a drug

Faraday cage -- idea for a bunker

Aldous Huxley -- Brave New World (New Longman Literature), the drug SOMA

survailance cameras -- pigeon camera used in ww2

dehumanising war

GMU:Non-machines/Juyoun Oh

2024-01-08T17:34:53Z

Juyoun Oh:

Diagram (10.12.2023)

[[File:Diagram10122023.png|600px]]

<nowiki>**</nowiki> reference for objects

[[File:Trajectoids-creating-a.jpg|left|thumb|1121x1121px]]

[[File:Bildschirmfoto 2024-01-08 um 18.28.22.png|left|thumb|1116x1116px|https://www.youtube.com/watch?v=2lW9HznqsVY]]

Normally when we think of a rolling object, we tend to imagine a cylinder (like a bicycle wheel) or a sphere (like a tennis ball) that will always follow a straight path when rolling. However, the world of mathematics and science is always open to exploring new ideas and concepts. This is why researchers have been studying shapes like oloids, sphericons, and more, which do not roll in straight lines.

All these funky shapes are really interesting to researchers as they can show us new ways to move objects around smoothly and efficiently. For example, imagine reducing the energy required to make a toy robot move, or mixing ingredients more thoroughly with a unique-looking spoon! While these peculiar shapes have been studied before, scientists have now taken it a step further.

Consider a game where you draw a path on a tilted table – similar to tilting a pinball table to make the ball go in a particular direction. Now, try to come up with a 3D object that, when placed at the top of the table, will roll down and exactly follow that path, instead of just going straight down. There are a few other rules of this game: the table needs to be inclined slightly (and not too much), there should be no slipping during rolling, and the initial orientation of the object can be chosen at launch. Plus, the path you draw must never go uphill and must be periodic. It must also consist of identical repeating segments - somewhat like in music rhythm patterns.

The scientists have pondered if it’s possible to find a winning strategy for this game. They wanted to know if, for any given repetitive path, it would be possible to design a shape that can be rolled to follow this path on its own. The goal was to develop a general recipe that would work not just for simple curves, but also for complicated and intertwined paths. The strangely shaped objects created for this purpose were coined as “trajectoids.”

At first glance, it appears impossible for a 3D object to automatically follow a predetermined rolling path while navigating all the angles and curves. However, the scientists started by simplifying the problem. They envisioned starting with a perfectly smooth basketball covered in flexible, trimmable material, akin to clay. By strategically removing portions of the basketball’s cover material that made contact with the table while ensuring the basketball itself always touched the path, it is possible to gradually sculpt the object into a custom shape. This resulting shape would then magically follow the same path when rolling independently. Applying this concept, the scientists successfully devised a new method for creating trajectoids.

These trajectoids aren’t just theoretical; the researchers 3D printed them and conducted successful experiments. They even ventured into making trajectoids that occasionally move uphill or follow self-intersecting paths. You can even try the new algorithm yourself for any path you desire, as the researchers have released an online tool for generating 3D-printing-ready files for trajectoids:

<nowiki>https://colab.research.google.com/drive/1XZ7Lf6pZu6nzEuqt_dUCHormeSbCCMlP</nowiki>

For a trajectoid to be successful, it must follow the periodic path indefinitely, maintaining the same orientation each time it completes a certain number of periods. The crucial aspect is how many path periods the trajectoid completes with one “full revolution,” thereby restoring its orientation. It’s highly unlikely to create a trajectoid that completes one revolution for every path period. But on the other hand, the researchers have shown that designing a trajectoid that completes two path periods for each revolution is almost always possible.

This two-periods-per-revolution property is a manifestation of an astonishing general property of rotations in 3D space and can be used in many fields of science where phenomena can be mathematically described as 3D rotations -- for example, in quantum computing, quantum optics, and classical optics.

In quantum physics, there’s a concept called the “Bloch sphere,” which is used to describe quantum states. These states encompass all the possible situations that a quantum system, such as a quantum bit or qubit, can be in. Just as a sphere rolling along a path provides information about its movement at specific points and orientations, the Bloch sphere represents unique qubit states, with changes in these states mirroring the motion of a rolling sphere.

Given this mathematical similarity, scientists can use the same algorithm for designing trajectoid to help verify the accuracy of quantum computers. Scientists often assess this accuracy by examining how closely a point on the Bloch sphere returns to its original position after specific actions, much like when a trajectoid completes one full revolution and restores its orientation after passing two path periods.

The science of crafting customizable trajectoid is also related to another seemingly unrelated field – disease diagnosis via MRI. “Spin” is a fundamental property of particles like protons, which make up hydrogen atoms in our bodies. Protons behave as tiny magnets, with their “spin” dictating the orientation of their magnetic ‘north’. This property is crucial for Magnetic Resonance Imaging (MRI) machines used in hospitals for patient scans.

To connect this with the Bloch sphere, consider that each point and orientation on the Bloch sphere represents a unique proton spin state, much like our trajectoid’s orientation. MRI machines use powerful magnetic fields to align these proton magnets within the body in one direction. Subsequently, they employ radio waves to disrupt this alignment. As the protons naturally realign themselves, they emit signals that can be measured and used to create detailed internal images.

Understanding how each proton returns to its original point on the Bloch sphere helps scientists differentiate human tissues and identify abnormalities. Mathematically, the proton spin state is analogous to the trajectoid’s orientation, the radio waves represent the path, and the changes in proton spin caused by the radio waves are equivalent to the rolling motion of the trajectoid along the path.

The mathematics behind the trajectoid algorithm reveals how any given MRI radio wave pulse can be finely tuned, such that repeating the pulse twice in succession restores all proton spins to their original state. This insight could potentially enhance MRI machines and improve disease diagnoses with greater accuracy.

== References ==
First opium war -- connection to social media as a drug

Faraday cage -- idea for a bunker

Aldous Huxley -- Brave New World (New Longman Literature), the drug SOMA

survailance cameras -- pigeon camera used in ww2

dehumanising war

File:Trajectoids-creating-a.jpg

2024-01-08T17:34:24Z

Juyoun Oh:

https://techxplore.com/news/2023-09-trajectoids-desired-path.html

Medien Wiki - User contributions [en]

GMU:Life in an aquatic ecosystem

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:The Plant Plant

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

File:제목 없는 아트워크 5.jpg

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:The Plant Plant

GMU:The Plant Plant

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

File:Doorshandles.jpg

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

GMU:Life in an aquatic ecosystem/Juyoun Oh

File:Unknown-14.jpg

GMU:Non-machines/Juyoun Oh

GMU:Non-machines/Juyoun Oh

GMU:Non-machines/Juyoun Oh

File:Image-winterwerkschau.png

File:Image-exbihition1.png

File:Bildschirm­foto 2024-07-26 um 11.20.01.png

File:Bildschirm­foto 2024-07-26 um 11.19.57.png

File:Bildschirm­foto 2024-07-26 um 11.19.51.png

File:Firststep.png

File:Image33.png

File:Falling .png

GMU:Non-machines/Juyoun Oh

GMU:Non-machines/Juyoun Oh

File:스크린샷 2024-01-23 오전 9.44.49.png

File:스크린샷 2024-01-23 오전 9.44.46.png

GMU:Non-machines/Juyoun Oh

File:스크린샷 2024-01-23 오전 9.44.40.png

File:스크린샷 2024-01-23 오전 9.44.31.png

File:스크린샷 2024-01-23 오전 9.43.54.png

File:스크린샷 2024-01-23 오전 9.43.51.png

File:스크린샷 2024-01-23 오전 9.43.47.png

GMU:Non-machines/Juyoun Oh

GMU:Non-machines/Juyoun Oh

File:Trajectoids-creating-a.jpg

File:Bildschirmfoto 2024-07-26 um 11.20.01.png

File:Bildschirmfoto 2024-07-26 um 11.19.57.png

File:Bildschirmfoto 2024-07-26 um 11.19.51.png