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Illustrative Visualization of a german climate change adaption research network – using processing and a metaball force field fpr moving agents
This is a visualization of a blog community. It's one of the end results of our project. In the visualization, thicker lines suggest a stronger connection between the two blogs. If you want to know more, or play with it, hop over to www.blogslikethis.com/
Hydrogen accounts for about 74 percent of the normal matter in the Universe. This visualization shows the electron clouds of hydrogen through the probability density function when the principal quantum number, N, is 1 and 2. The probability density illustrates where the electron is most likely to be found if measured, red indicates high probability, blue indicates low probability.
Update: 2020/06/22: A 16k version is now available.
Update: 2020/07/06: A visualization showing all electron orbitals for N=1 to 6 is also available on Youtube: youtu.be/HyRHT4yOvms
Ascent Penthouse
Client: Mr Dung - IAM Architecture
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@ Long Nguyen & Thu Nguyen
Architecture - Interior Design & 3D Visualization
0979 962 864, Ho Chi Minh City
advlongnguyen@gmail.com
Created by Martin Wattenberg with Marek Walczak (who licenses it under this CC license), Thinking Machine 4 explores the invisible, elusive nature of thought. Play chess against a transparent intelligence, its evolving thought process visible on the board before you.
The artwork is an artificial intelligence program, ready to play chess with the viewer. If the viewer confronts the program, the computer's thought process is sketched on screen as it plays. A map is created from the traces of literally thousands of possible futures as the program tries to decide its best move. Those traces become a key to the invisible lines of force in the game as well as a window into the spirit of a thinking machine.
This visualization shows the wave functions of hydrogen when the principal quantum number, N, is between 1 and 2. The wave function is the solution of the Schrödinger equation and describes the electron in its wave form. Yellow and red colors show positive, while blue and purple denote negative values. Its complex square is the probability density, which actually shows where the electron might be found in the atom when measured.
That visualization can be found here: www.flickr.com/photos/188522613@N05/49924325132/in/datepo...
Update: 2020/06/22: A 16k version is now available.
Here's a quick and dirty attempt to automatically determine arterial streets without any prior knowledge about the arterial status of a street. The idea is: a shortest path tree is taken for a bunch of random points, and the trunkyness of each branch was determined. The trunkynesses of the roads are summed, and this is the resulting map. It sort of works.
Ascent Penthouse
Client: Mr Dung - IAM Architecture
---
@ Long Nguyen & Thu Nguyen
Architecture - Interior Design & 3D Visualization
0979 962 864, Ho Chi Minh City
advlongnguyen@gmail.com
The average San Francisco prices go beyond the $700k limit. But even so, housing is way cheaper in Baltimore.
Sources:
Money plays a central role to life in EVE. What does 200B ISK in damage actually look like? When I lose a Battleship, how much is that setting me back? How many Logistics ships could you buy instead of one Dreadnaught?
More details on how I collected the data, and why, in my post on this visualization.
You'll need to zoom in on this to see the details.
This image is part my new blog about EVE Online that tries to explain and document the world, with a focus on making it accessible for non-players and new players.
Visualization of ragas based on 1000+ features derived from:
- vadi and samvadi
- which notes are included
- bigram and tetragrams in the raga
- distinction of all the above features wrt aaroha vs avaroha
- distinction of all the above features wrt extended notes
- distinction of all the above features wrt second-octave notes
Raw data is available as json and csv:
github.com/kylemcdonald/ragaDB/blob/master/ragasdb/ragas....
github.com/kylemcdonald/ragaDB/blob/master/ragasdb/ragas.csv
And a script is available for generating the derived features: github.com/kylemcdonald/ragaDB/blob/master/ragasdb/make-t...
Layout and coloring was found using t-sne, with scripts in this repository github.com/kylemcdonald/EmbeddingScripts
There are more variations on the visualization above with different parameters (and varying accuracy in representing the space) here: github.com/kylemcdonald/ragaDB/tree/master/tsne
June 18, 2013 - NREL Senior Scientists Ross Larsen and Travis Kemper examine a molecular model of Polymeric organic nitroxide radical (PTMA) film for battery applications using a 3D model at the Insight Collaboration Laboratory during a tour of the Energy Systems Integration Facility (ESIF) at the National Renewable Energy Laboratory (NREL) in Golden, Colorado. (Photo by Dennis Schroeder / NREL)
visualization in-progress - this is a dataset of twitter messages taken from the #140conf that jeff pulver organized in Tel Aviv last December.
Mike Moradi, Founder and Chief Executive Officer, Sensulin, USA; Young Global Leader capture during the Session: "Visualizing Disease" at the World Economic Forum - Annual Meeting of the New Champions in Dalian, People's Republic of China 2017. Copyright by World Economic Forum / Sikarin Fon Thanachaiary
I'm playing with a new theme for my blog, and wanted a better way to let people quickly scan for how many posts I had. So I used a background image of black, offset with background-position in css to let a graph "show through" to show the count.
I've also posted the PHP and CSS code for WordPress to make this work: http://gist.github.com/304290
It looks better larger: http://www.flickr.com/photos/artlung/4356884087/sizes/o/
In its 2006 Gallery, the journal Nature chose an image that spatially lays out different areas of science in a plane. It is a reduction of a large-format (42" x 43") paper print.
The map was constructed by sorting roughly 800,000 scientific papers (shown as white dots) into 776 different scientific paradigms (red circular nodes) based on how often the papers were cited together by authors of other papers. Links (curved lines) were made between the paradigms that shared common members, then treated as rubber bands, holding similar paradigms nearer one another when a physical simulation had every paradigm repel every other: thus the layout derives directly from the data. Larger paradigms have more papers. Labels list common words unique to each paradigm.
This work was commissioned and partially supported by Katy Borner and the Places and Spaces: Mapping Science exhibition.
www.visualcomplexity.com/vc/project_details.cfm?id=421&am...
The Taj Mahal located in the white spot of a heatmap of compass data taken from public Flickr photos.
See the related Flickr Blog post.