Performativizing Papyrocentricity #60

Papyrocentric Performativity Presents:

Conteur CompatissantShort Stories, Guy de Maupassant, translated by Marjorie Laurie (Everyman’s Library 1934)

Riff-Raph100 Pre-Raphaelite Masterpieces, Gordon Kerr (Flame Tree Publishing 2011)

Fall of the WildA Fall of Moondust, Arthur C. Clarke (1961)

Orchid and OakVine’s Complete Expository Dictionary of Old and New Testament Words, W.E. Vine et al (Thomas Nelson 1984)

Hoare HereRisingtidefallingstar, Philip Hoare (Fourth Estate 2017)

Or Read a Review at Random: RaRaR

Square Routes Re-Verticed

Start with a point in the middle of a square. Allow it to make a series of, say, eight jumps towards the vertices of the square, but with one restriction: it can’t jump towards the same vertex twice in a row. When the point has made the eight jumps, mark its position. If you do this for every possible route, the result will look like this:

Ban jump towards same vertex

And here’s a different restriction: the point can’t jump towards the vertex immediately to the left of the vertex it has just jumped towards:

Ban jump towards v + 1

And here it can’t jump towards the vertex diagonally opposite the vertex it has just jumped towards:

Ban jump towards v + 2

Now allow the point to jump not just towards the vertices, but towards points midway between the vertices. And expand and reverse the restrictions: instead of not allowing a jump towards v + i1, v + i2…, only allow a jump towards v + i1, v + i2… Some interesting shapes appear:

Jump must be towards v, v + 1 or v + 2 (one point between vertices)

v, v + 1 or v + 6

v, v + 2 or v + 3

v, v + 2 or v + 4

v, v + 2 or v + 6

v, v + 3 or v + 4

v, v + 3 or v + 5

v, v + 2 or v + 7

v + 1, v + 4 or v + 7

v, v + 1 or v + 6 (two points between vertices)

v, v + 2 or v + 4

v, v + 2 or v + 6

v, v + 2 or v + 9

v, v + 3 or v + 6

v, v + 3 or v + 8

v, v + 4 or v + 8

v, v + 5 or v + 7

v , v + 6 or v + 11

v + 1, v + 5 or v + 6

v + 1, v + 2 or v + 10

v + 1, v + 6 or v + 10

v + 1, v + 6 or v + 11

v + 2, v + 6 or v + 10

Elsewhere other-posted:

Square Routes
Square Routes Revisited
Square Routes Re-Revisited
Square Routes Re-Re-Revisited

Santa Ana

Biblia anagrammatica, or, The anagrammatic Bible: a literary curiosity gathered from unexplored sources and from books of the greatest rarity, Rev. Walter Begley, Privately Printed for the Author, 1904


After considerable research, I have only discovered two writers who have attempted this excessively difficult literary device. One was the eccentric Pierre de St. Louis, a Carmelite, whose book is dated 1672, and the other an Hungarian priest, who gave his contribution to the public in a work published as recently as 1869.

Luc. i. 28.
Ave, Maria, plena gratia; Dominus tecum.


Pierre de St. Louis, Carmelite, 1672.

Nigra sum. At Janua Coeli demum aperta.
Amica pia et Rosa grata, Lumenve Mundi.
Gemma Vitis in ea clara Domu pure nata.
Virgo clemens pia miranda, Eva mutata.
Regia summa Patrona, Clientem adjuva.
Virgo meum lumen, pia et sacrata Diana.
Ira placata rigidum mutas Evae nomen.
O Musa, jam ad te levia carmina pergunt.
Area mea totiusve Mundi ampla Regina.
Mater Carmeli. In eo, pia, munda, augusta.
Magna diu semper, Carmeli o Janua Tuta.
In Te valida via, magna sperat cor meum.
Amate prodigium naturas sine macula.
Semper inviolatam, argute canam. Audi.
Gemma tuis pie cara, in Domu Lauretana,
Jam tum via miranda per angelos vecta
Permagna Domus aurea in alta emicuit.
Vera, Alma Domus Agri Piceni tuta mane.
Amica ad te unam, jam Peregrinus volat.
Tu Dia, quam Pia, ore angeli arcanum sume.
Sanctuarium a Dei mei Angelo paratum.
Eia, Pia, Caram Mundo genitura salutem.
Ea pia, edita Regula omnium sanctarum.
Virgo casta Diana Emmanuelem rapuit.
Alma Porta jam antea Decus Virgineum.
Summa Diva ac Virgo plane intemerata.
Tam magna Deipara, una te jure colimus.
Via mea, Paradisi gratum Lumen, te cano
Intus a gaudio camera impleatur. Amen.
Mater cujus amaritudo ei plane magna
Elucens Virgo, tu jam pia Mater amanda.
In Amanda vivam ego. Petrus Carmelita
Mea Virago Lauretana est prima mundi.
Mira simul et pia, erga Numen advocata.
O Luna magnum a Dei pietate sacrarium.
O Unica sanave Margarita, Dei templum.
Summa Regina Poli, tute ac jure amanda.
Tu Regia, non Eva prima, sed Immaculata.
Sum Luna Picena amata, Virgo Mater Dei
Tu mea ardua ara, olim in Picenum gesta.
O veri Dei Munus, Palma, caritate magna.
Alma vere Integra, Pudica. Nos jam muta.
Due Regina et viam tutam sine malo para.
Num pia amata, et sacra Virgo de Lumine.
Eva intacta Deum jam paris angelorum.
Ita amata parens miraculo Deum genui.
Ardua sancta pia meum Genitorem alui.
Tu pia amica Mundo. Salve Regina Mater,
O augusta mire pia. Nunc Dei Mater alma.
Ipsa ter magna aut nimium decora. Vale.
Optima, cara Mater Numinis. Vale. Gaude.

This very eccentric Carmelite who framed the above fifty-one anagrams, and the first anagrammatic dialogue in Part I., some pages back, has been presented entire, and not tithed. The reasons of this special privilege are that he is rare to a degree, an “original” here and always, and the specimens above have been picked out, for the first time, from different parts of his work, for which, and for more about him, see the Bibliography.

Biblia anagrammatica (1904)

Mod’s Chosen

When you divide one integer by another, one of two things happens. Either the second number goes perfectly into the first or there’s a remainder:

15 / 5 = 3
18 / 5 = 3⅗

In the first case, there’s no remainder, that is, the remainder is 0. In the second case, there’s a remainder of 3. And all that gives you the basis for what’s called modular arithmetic. It returns the remainder when one number is divided by another:

15 mod 5 = 0
16 mod 5 = 1
17 mod 5 = 2
18 mod 5 = 3
19 mod 5 = 4
20 mod 5 = 0
21 mod 5 = 1
22 mod 5 = 2...

It looks simple but a lot of mathematics is built on it. I don’t know much of that maths, but I know one thing I like: the patterns you can get from modular arithmetic. Suppose you draw a square, then find a point and measure the distances from that point to all the vertices of the square. Then add the distances up, turn the result into an integer if necessary, and test whether the result is divisible by 2 or not. If it is divisible, colour the point in. If it isn’t, leave the point blank.

Then move on to another point and perform the same test. This is modular arithematic, because for each point you’re asking whether d mod 2 = 0. The result looks like this:

d mod 2 = 0

Here are more divisors:

d mod 3 = 0

d mod 4 = 0

d mod 5 = 0

d mod 6 = 0

d mod 7 = 0

d mod 8 = 0

d mod 9 = 0

d mod 10 = 0

d mod various = 0 (animated)

You can also use modular arithmetic to determine the colour of the points. For example, if d mod n = 0, the point is black; if d mod n = 1, the point is red; if d mod n = 2, the point is green; and so on.

d mod 3 = 0, 1, 2 (coloured)

d mod 4 = 0, 1, 2, 3 (coloured)

d mod 5 = 0, 1, 2, 3, 4 (coloured)

d mod 5 = 0, 1, 2, 3, 4 (animated and expanding)