Reading

Collected images

October 12, 2018

Reading

The first task is to document 51°30’37.6”N 0°06’56.3”W, the true geographical centre of London. Using a USB Microscope, a digital camera and graph paper, I document a 1’ × 1’ square on the embankment.

Microscope 1 Microscope 1 Walk 1

October 16, 2018

Encouraged by Friday’s results, I go back to the embankment to take more microscope photographs. If I take many images of the same area, I can stitch them together in Photoshop and generate a much higher-resolution image. After a few hours, I have taken 2,764 images.

After about 20 hours of arranging these images (testing the limits of both Photoshop and my computer), I end up with a number of collages like these:

Walk 1 Walk 1 Walk 1

When I took these images, I was doing my best to move the camera in straight lines across an area. The collages show how difficult this is to do - the lines meander from left to right, the images are rotated by varying amounts, covering some parts of the surface repeatedly while leaving others blank.

I’m also finding some other artifacts related to lichen. There’s a database of every recorded lichen in London, with all kinds of rich metadata attached:

gbifID Dataset Key Occurrence ID Scientific Name Country Locality Latitude Longitude Identified By
1534476053 91c4bb90-3608-47e6-9757-361a4a7728f5 3f6eae07-02ef-48dc-852c-b456e2d99296 Amandinea punctata (Hoffm.) Coppins & Scheid. GB Chelsea Physic Garden 51.48431 -0.16301 Peter James
1534475637 91c4bb90-3608-47e6-9757-361a4a7728f5 a8ff9f61-5fcd-424f-8673-f0bbcb0141f6 Trapelia coarctata (Turner ex Sm.) M.Choisy GB Holland Park 51.50073 -0.20773 Mark Powell
1534474189 91c4bb90-3608-47e6-9757-361a4a7728f5 66bd5b60-f416-42ba-9fe2-713412a10510 Diploicia canescens (Dicks.) A.Massal. GB Hackney Marsh 51.553 -0.01888 John Skinner
1534473991 91c4bb90-3608-47e6-9757-361a4a7728f5 a3adf68e-25e5-4e04-a87f-54caca5ad227 Bacidia neosquamulosa Aptroot & Herk GB Hackney Marsh 51.55305 -0.02176 John Skinner
1534473912 91c4bb90-3608-47e6-9757-361a4a7728f5 69a2a47a-310c-4365-91a9-6814dbf9b707 Xanthoria polycarpa (Hoffm.) Rieber GB Hackney Marsh 51.5531 -0.02464 John Skinner
1534473760 91c4bb90-3608-47e6-9757-361a4a7728f5 5b0b8aed-3222-467b-9cd7-e1a0fc4d1a29 Parmelia sulcata Taylor GB Brockwell Park 51.45012 -0.10537 Keith Palmer
1534473396 91c4bb90-3608-47e6-9757-361a4a7728f5 fdd102e4-3167-4411-80bc-c3156c33f1ff Psilolechia lucida (Ach.) M.Choisy GB Forest Hill 51.43554 -0.06641 Ishpi Blatchley
1534473195 91c4bb90-3608-47e6-9757-361a4a7728f5 4a750eae-774d-4d40-8f32-22a30663118e Xanthoria polycarpa (Hoffm.) Rieber GB Regents Park 51.53104 -0.16113 Linda Davies
1534473194 91c4bb90-3608-47e6-9757-361a4a7728f5 8ae228c8-d989-4d5c-a5b3-ba9979ad243d Lecanora symmicta (Ach.) Ach. GB Honor Oak - One Tree Hill allotments 51.45102 -0.05064 Linda Davies
1534473013 91c4bb90-3608-47e6-9757-361a4a7728f5 bb77062d-6910-4523-b1a9-b801d2f20bbe Punctelia subrudecta (Nyl.) Krog GB Richmond Park 51.44351 -0.25962 Frank Dobson
1534471098 91c4bb90-3608-47e6-9757-361a4a7728f5 14305b47-97c6-451a-9bd3-6e61d7399268 Lecanora dispersa (Pers.) Sommerf. GB Sydenham 51.45789 -0.05827 Brian Coppins
1534470926 91c4bb90-3608-47e6-9757-361a4a7728f5 35ae1df3-ea96-49d2-b66c-de43859656b5 Lecanora expallens Ach. GB Richmond Park 51.44351 -0.25962 Frank Dobson
1534470303 91c4bb90-3608-47e6-9757-361a4a7728f5 3f623124-ac38-4700-9d80-3f49b246630a Lecanora symmicta (Ach.) Ach. GB Chelsea Physic Garden 51.48431 -0.16301 Peter James
1534469583 91c4bb90-3608-47e6-9757-361a4a7728f5 5333c275-d7dd-4204-9129-8b83c4c0c8e7 Violella fucata (Stirt.) T.Sprib. GB Wimbledon Common 51.46018 -0.20212 Frank Dobson
1534467472 91c4bb90-3608-47e6-9757-361a4a7728f5 5c717206-6dda-46a7-a44a-4d1e1249e8eb Taeniolella phaeophysciae D.Hawksw. GB Campden Hill Square Gardens 51.5083 -0.20239 Brian Coppins
1534466521 91c4bb90-3608-47e6-9757-361a4a7728f5 883bb43c-05a1-4197-8801-daba06cf6a46 Candelariella vitellina f. vitellina GB Richmond Park (east) 51.46018 -0.20212 Brian Coppins
1534465539 91c4bb90-3608-47e6-9757-361a4a7728f5 d235930a-5740-471d-b83d-e779177b36d2 Clauzadea monticola (Ach.) Hafellner & Bellem. GB Chelsea Physic Garden 51.48431 -0.16301 Peter James
1534465414 91c4bb90-3608-47e6-9757-361a4a7728f5 dd0da5f4-6e99-47a8-92bf-3308592ca60f Phaeophyscia orbicularis (Neck.) Moberg GB Hackney Marsh 51.5531 -0.02464 John Skinner
1534465255 91c4bb90-3608-47e6-9757-361a4a7728f5 d996329e-c486-4150-9bd6-75ffeffa620d Lecidea grisella Flörke ex Schaer. GB Honor Oak 51.46544 -0.05291 Simon Davey
1534464747 91c4bb90-3608-47e6-9757-361a4a7728f5 b986865c-5794-4dc3-885e-0cea2bf48c57 Candelariella reflexa (Nyl.) Lettau GB Hackney Marsh 51.54775 -0.05444 John Skinner
1534464472 91c4bb90-3608-47e6-9757-361a4a7728f5 0f2667aa-5d0d-4efe-8d39-34f6107fa254 Xanthoria polycarpa (Hoffm.) Rieber GB Primrose Hill 51.54005 -0.16221 Linda Davies
1534463973 91c4bb90-3608-47e6-9757-361a4a7728f5 7f465379-4dbf-429c-9e64-74e148aac770 Lecidella stigmatea (Ach.) Hertel & Leuckert GB Hackney Marsh 51.54775 -0.05444 John Skinner
1534463501 91c4bb90-3608-47e6-9757-361a4a7728f5 05320755-e0d7-4395-8581-0bf272602f43 Verrucaria viridula (Schrad.) Ach. GB Forest Hill 51.43554 -0.06641 Ishpi Blatchley
...

Source: GBIF.org (15 October 2018): GBIF Occurrence Download DOI: 10.15468/dl.f1lmko

The section of database (limited to London) I downloaded has 2,548 entires. To save space, various columns are omitted in the example above.

Also, Matt points out that the lichen in my images are forming Turing Patterns. Turing patterns are a mathematical concept that describes how patterns found in nature (such as stripes, spots, growth patterns) can be described using reaction-diffusion (which is a mathematical model that describes the mixing of chemicals).

Turing Patterns Dolnik, Milos & M. Zhabotinsky, Anatol & Epstein, Irving. (2001): Resonant suppression of Turing patterns by periodic illumination. Physical review. E, Statistical, nonlinear, and soft matter physics. 63. 026101. 10.1103/PhysRevE.63.026101.

Turing Patterns Gray-Scott Reaction-Diffusion. Github

See also: Alan Turing (1952): The Chemical Basis of Morphogenesis

October 19, 2018

Catrin Morgan on Visual Essays

A definition of illustration: Any image that takes a communicating role in a text. Text meaning words or images or both. Catrin did a lot of work on different depictions of St. Jerome in his Study, which is detailed here.

St. Jerome in his study Vincenzo Catena (c.a 1510): St. Jerome in his Study The National Gallery

Constructing an argument with images

James Elkins writes about this (at length) in Writing with images (2013)

Illustrations that are used in art history writing. A mnemonic: An image to remind us what a painting looks like. Doesn’t have to be a very good reproduction. The other way is evidence — here’s proof that this painting really exists. Both of these aren’t very exciting.

Images arranged on a timeline: a visual argument

You start seeing images referencing each other (chronology)

Details of different images next to each other**

You start seeing repetition of elements etc.

David Carrier (2000): The Aesthetics of Comics

Talks about the idea of concatenation of images: Whenever we see images in the same context we start making connections. The visual essay can build on this.

See also: Various versions of Cardinal Albrecht as St Jerome by Lucas Cranach the Elder.

Introducing a new (diagrammatic) voice to make an argument

Semantic Sesseation: When you say a word over and over again and it stops soundning like a word. The same works for images: Image becomes a pattern. Graphic novels have this convention where a full bleed image is timeless. See also Scott McCloud (1993): Understanding Comics.

We can use devices like this (from graphic novels) to make critical arguments.

Using book rythm, pacing etc. If the reader thinks they know what’s coming, you can emphasise a point by making something different. All of this is repetition.

Space

In graphic novels, white space slows down time (see McCloud). We’re talking about space in a spatial medium.

Spacing also creates hierarchy. You can do headline, body copy and sidenotes with images. Using typographic conventions with images. All of the structure of an essay is still there, you can use it with images as well. However, be aware that this hinges on reading direction.

Extraction

Pulling out parts of the image (through tracing, distortion, etc.) to make a point.

Direct comparison

Brian Dyllan (2017): Essayism

Talks about ways to write essays: One of these is the list (i.e most of the stuff above). Visual essays allow us to demonstrate arguments rather than describing them.

Overlaying images that have visual similarities.

Historical Comparison

Pull in images from a different context to make comparisons

Reduction, Elimination

Cut out parts of the image. You draw attention to what’s been cut out, and also the stuff around it.

Part 2: Visual Grammar

Midnight Mexico City Sarah Sze (2015): Midnight Mexico City. Silkscreen, Digital Print, and Laser Engraved Paper, 58.1 × 63.2cm. Artsy

Using found structure (such as the grid of a newspaper) John Berger: Ways of Seeing

McGuire Richard McGuire (1989): Here. The Atlantic

Richard McGuire is looking at the same corner of a room in different time periods. Using time, layering of different narratives.

Hollis Frampton (1971): Nostalgia. Frampton shows early photographs of himself burning on a hot plate, while a narrator talks about the previous image (which just got burned).

A Spiegelman comic in early in raw magazine plays on a similar idea, with character talking about what happened in the last panel:

Spiegelman Art Spiegelman (1973): Don’t Get Around Much Anymore. Slate

Rachel Moore (2006): Hollis Frampton (nostalgia)

Cindy Sherman’s Instagram is a visual essay in some way (even if maybe unconsciously). She’s one of the rare old-school artist who’s doing good things on Instagram.

Using digital platforms to inform visual essays can be useful. The Instagram grid is a visual grammar you can make use of.

Visual Essays don’t have to happen in a book — see Nostalgia.

Tutorial notes

  • Connect the lichen database to the images
  • Use the methods used to collect the images on more artifacts (such as the printed-out database)
  • Bring in coordinates, establish scale of the microscopic photographs
  • Think about how images might be presented in space
  • The interesting thing is how a seemingly dead, neutral surface (such as a wall in a city) is actually fiercly negotiated between all these different species of animals, systems, weather, air pollution etc.)
  • See also the essay on decay from the reading list - the wall isn’t a static object, it’s constantly in a state of decay, beign turned back into raw material where it came from. Glass turns back into chrystal, bread starts to rot as soon as it leaves the oven.
  • We tend to think of nature as contained in parks, but it’s actually all around us, living inside our built structures
  • The British Lichen Society might be an interesting research area, who are these people making and recording these observations
  • Definitely match up the site I recorded with the correct line in the database - attacking the site from different angles
  • All of this is very reminiscent of Powers of 10

October 26, 2018

Reading for week three

  • Georges Perec: Species of Spaces
  • John Berger: Ways of Seeing
  • Brian Dillon: Essayism
  • Scott McCloud: Understanding Comics

There is no specified format and we ask you to think carefully about appropriate outcomes for your visual investigations. This might extend to book, wall based, object based and projection based work.

Outcomes and Crit Notes

I talked about the way the mosaic photographs were made — moving the USB microscope along the surface millimetre by millimetre (within a 1’ by 1’ square I defined). The movement was then repeated in Photoshop when I stitched the images together. The final collages were laser-printed at a large format for the crit.

I did secondary research on lichen in a number of different directions — there’s the British Lichen Society, and also the database of lichen sightings which they contribute to. I mapped a section of the database onto a map of London, but unfortunately the sightings don’t all have individual coordinates associated with them. Instead they’re all grouped into maybe a dozen sets of coordinates which I’m sure has a good reason, but doesn’t make for a very nice visualization.

The Natural History Museum has one of the largest collections of lichen specimens in the world, containing about 400.000 items. They’re beautiful:

Specimen of Lichen at the Natural History Museum, London Specimen of Lecanora vitellina var. reflexa Nyl. (BM001096649) The Natural History Museum

I’m also still interested in diagramming the embankment in different ways, maybe developing this drawing I made at the site:

Diagram of the site

Eventually, I decided to focus on the Turing Patterns. I wrote a Javascript implementation of the Gray-Scott algorithm so I could control everything about the simulation. After experimenting for a while, I found a few sets of parameters that led to patterns that matched the lichen photographs very closely. I then wrote a Puppeteer script that takes a screenshot of the simulation every few seconds. Using the script, I generated a series of images using different parameters. I then printed and bound these into a book in chronological order:

The book is designed to add a secondary voice to the argument. There is also the idea that the book maps a single environment as it changes over time (while the photographic collages move across the surface spatially). I’m imagining it like this:

Diagram showing images along spatial and temporal dimensions A: Photographic collage, B: Turing-Pattern book.

November 9, 2018: Materiality

Reading for November 9

Brief for Novemeber 9

Hi All, It was great to see your responses to ‘Image’ in last week’s review session and to share ideas, thoughts and comments within your groups. During Across RCA, please complete the primer task attached. This will inform the next session, a workshop to begin our exploration of ‘Materiality’. We introduced some background ideas at the end of our last session and here are the reference links if anyone would like to watch the short films again;

Materiality Brief (DOCX)

The brief is to find a Process, a Material, an Object and a Tool and write a few words about each. It also suggests to think of these as seperate things, so that’s what I’m doing below:

Process: Tuning an Instrument

I have personal experience here of course. I remember learning to tune your own violin to be a pretty big step, and it took me forever to learn how to do it. Part of it is hearing: First, you tune your A string to whatever reference you’re using — another violin, a tuning fork or a piano. Then, you adjust each string to the A string - first the D, which is a fith below A. Then G, a fith below D. Finally E, a fith above A. There’s also a muscle memory component — how do you hold your hand on the pegs to achieve the right amount of leverage? Unlike guitar tuners, these are just tapered pieces of wood stuck into a hole.

In orchestra performances, every player goes through this process at the beginning of a performance. It always happens the same way: Orchestra walks on, Applause, Orchestra sits down, Concert Master walks on, Applause, Concert Master turns around — this is the command to tune. It always happens in the same order: Wind, Brass, Strings from low to high. Finally, conductor (and soloist) walk on.

Material: The Enron Corpus

What the Enron Corpus Says About Us I originally found this during by undergrad at Camberwell, but didn’t really do anything with it at the time.

I consider databases like this one materials because they’re the stuff algortihms are made from. By themselves, there basically useless — many contain many more instances than you could ever look at in a lifetime, and they’re usually pretty monotenous. They only become meaningful when they’re turned into something.

  • Object: Styrofoam Head
  • Tool: Kitchen Blender (Braun)

We spent the morning handling the material and arranging it by various criteria:

  • Density, as in
  • Density, as in opacity:
  • Density, as in consitency
  • Monetary value (how much would these be to buy?)
  • Raw material value (if you melted these down, how much would they be worth?)
  • Sentimental value (here we can only go by assumption — if your dad lost a leg in the Ibuprofen factory, that’s going to have sentimental value for you)
  • Photographic value (how much light does it reflect?)

VF Table VF Table VF Table

The task for the next session is to generate a visual outcome on an aspect of materiality in time/space.

November 10, 2018

Maths notes “The strange operation & mistery of numbers.” Peter’s Mundy’s notation of all possible changes on three, four, five, and six bells in his travel journal “Itinerarium Mundi.” Entry made after Mundy’s visit to London in 1654. Cabinet Magazine