EM.I
physics
fields
EM.I Companion Article

EM.I Companion Article

written by dbob

17 Oct 2022222 EDITIONS
0.1 TEZ

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EM.I Details

EM.I generates artistic visualizations of Electric fields. Your unique token hash determines parameters that generate 2 unique field displays (with and without annotations) and bonus collaborative material! Field displays are constructed line-by-line as you watch - in either manual mode OR auto mode (continuously loops through all displays).

Each token generates

Each unique token hash is used to determine

User Keyboard Interaction

Manual mode (default)

Note: spacebar will move to the next display only after the current display completes rendering. It can take 30-60 seconds to complete a render when the frame rate is set to 60 fps.

Auto mode

Important: To use other keys (manual mode) you must first exit auto mode (s key).

Sample Output

Multicolor mapping of Electric Field lines
Multicolor mapping of Electric Field lines

After render is complete (20-30 seconds)

Annotated Multicolor mapping of Electric Field lines
Annotated Multicolor mapping of Electric Field lines

Next,

Electric Field intensity color mapping
Electric Field intensity color mapping

After render is complete (20-30 seconds)

Annotated Electric Field intensity color mapping
Annotated Electric Field intensity color mapping

Bonus Collaborative Material

This is a collaborative feature that allows you to mix your hash with a different hash to produce unique bonus content (alternately, you may enter a personal phrase). 😎

Press the + key to access bonus material.

Important: you must be in manual mode - if needed - first exit auto mode (s key).

Optional bonus content via hash mixing
Optional bonus content via hash mixing

Sample Bonus Content

Okay, so let's give it a go! You can enter pretty much anything you wish. The mixing was designed to take your unique token hash and combine it with another token's hash to create a new hash. Wait, what? Yeah, that's actually a thing. That new hash is then used to create content. This means that you and another collector can combine hashes and have a common collaborative set of outputs. Sweet.

Sounds awesome ... but what if you don't want to go to all that trouble of finding another hash to mix in with yours? No worries. I've got you covered! Instead of entering another hash simply enter a meaningful phrase.

A phrase entered for hash mixing
A phrase entered for hash mixing

This will set into motion the creation of new content based on a new combined hash.

Bonus multicolor mapping of Electric Field lines
Bonus multicolor mapping of Electric Field lines
Annotated Bonus multicolor mapping of Electric Field lines
Annotated Bonus multicolor mapping of Electric Field lines
Bonus Electric Field intensity color mapping
Bonus Electric Field intensity color mapping
Annotated Bonus Electric Field intensity color mapping
Annotated Bonus Electric Field intensity color mapping

Historical Background

Nearly everyone has a memory from childhood where they encountered and played with magnets. Perhaps you wondered, What is this magical invisible force of attraction and repulsion? Later, most likely in a science classroom, you may have performed the classic experiment of placing iron filings around a bar magnet. The iron filings line up along the field lines allowing you to see the path and direction of the invisible magnetic field. 😳 🤔 😎

Field lines of a magnetic field
Field lines of a magnetic field

Michael Faraday (1791-1865) is credited for coining the terms "field" and "lines of force" during his work on electricity and magnetism. Later it was realized that his "lines of force" were in fact the paths of electric and magnetic fields. Faraday's discoveries established connections between electricity and magnetism that are the foundation of today's electric motors and transformers. Despite a lack of formal education he became one of the most influential scientists in history and contributed greatly to physics and chemistry. Faraday's law of induction is one of the four fundamental laws governing electromagnetism.

Michael Faraday
Michael Faraday

James Clerk Maxwell (1831-1879) was a brilliant mathematician and scientist. Maxwell was among the first to understand the deep meaning of Faraday's field concept. Maxwell incorporated the work of Faraday (and others) into a set of equations now known as "Maxwell's Equations." His set of four equations are accepted as the basis of all modern theories of electromagnetic phenomena: electric, magnetic, and electromagnetic (i.e. light). Einstein described Maxwell's work as the most profound that physics has experienced since the time of Newton.

James Clerk Maxwell
James Clerk Maxwell

About the author

I'm a science professor and generative artist. I will be releasing more science-related generative art soon! Stay tuned for more to come!

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