Quareia—The Initiate Module I—Core Initiate Skills Lesson 5: Identifying Ritual Patterns
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Framing Cyclic Revolutionary Emergence of Opposing Symbols of Identity Eppur Si Muove: Biomimetic Embedding of N-Tuple Helices in Spherical Polyhedra - /
Alternative view of segmented documents via Kairos 23 October 2017 | Draft Framing Cyclic Revolutionary Emergence of Opposing Symbols of Identity Eppur si muove: Biomimetic embedding of N-tuple helices in spherical polyhedra - / - Introduction Symbolic stars vs Strategic pillars; Polyhedra vs Helices; Logic vs Comprehension? Dynamic bonding patterns in n-tuple helices engendering n-fold rotating symbols Embedding the triple helix in a spherical octahedron Embedding the quadruple helix in a spherical cube Embedding the quintuple helix in a spherical dodecahedron and a Pentagramma Mirificum Embedding six-fold, eight-fold and ten-fold helices in appropriately encircled polyhedra Embedding twelve-fold, eleven-fold, nine-fold and seven-fold helices in appropriately encircled polyhedra Neglected recognition of logical patterns -- especially of opposition Dynamic relationship between polyhedra engendered by circles -- variously implying forms of unity Symbol rotation as dynamic essential to engaging with value-inversion References Introduction The contrast to the geocentric model of the solar system was framed by the Italian mathematician, physicist and philosopher Galileo Galilei (1564-1642). His much-cited phrase, " And yet it moves" (E pur si muove or Eppur si muove) was allegedly pronounced in 1633 when he was forced to recant his claims that the Earth moves around the immovable Sun rather than the converse -- known as the Galileo affair. Such a shift in perspective might usefully inspire the recognition that the stasis attributed so widely to logos and other much-valued cultural and heraldic symbols obscures the manner in which they imply a fundamental cognitive dynamic. Cultural symbols fundamental to the identity of a group might then be understood as variously moving and transforming in ways which currently elude comprehension. -
Shape Skeletons Creating Polyhedra with Straws
Shape Skeletons Creating Polyhedra with Straws Topics: 3-Dimensional Shapes, Regular Solids, Geometry Materials List Drinking straws or stir straws, cut in Use simple materials to investigate regular or advanced 3-dimensional shapes. half Fun to create, these shapes make wonderful showpieces and learning tools! Paperclips to use with the drinking Assembly straws or chenille 1. Choose which shape to construct. Note: the 4-sided tetrahedron, 8-sided stems to use with octahedron, and 20-sided icosahedron have triangular faces and will form sturdier the stir straws skeletal shapes. The 6-sided cube with square faces and the 12-sided Scissors dodecahedron with pentagonal faces will be less sturdy. See the Taking it Appropriate tool for Further section. cutting the wire in the chenille stems, Platonic Solids if used This activity can be used to teach: Common Core Math Tetrahedron Cube Octahedron Dodecahedron Icosahedron Standards: Angles and volume Polyhedron Faces Shape of Face Edges Vertices and measurement Tetrahedron 4 Triangles 6 4 (Measurement & Cube 6 Squares 12 8 Data, Grade 4, 5, 6, & Octahedron 8 Triangles 12 6 7; Grade 5, 3, 4, & 5) Dodecahedron 12 Pentagons 30 20 2-Dimensional and 3- Dimensional Shapes Icosahedron 20 Triangles 30 12 (Geometry, Grades 2- 12) 2. Use the table and images above to construct the selected shape by creating one or Problem Solving and more face shapes and then add straws or join shapes at each of the vertices: Reasoning a. For drinking straws and paperclips: Bend the (Mathematical paperclips so that the 2 loops form a “V” or “L” Practices Grades 2- shape as needed, widen the narrower loop and insert 12) one loop into the end of one straw half, and the other loop into another straw half. -
Polygrams and Polygons
Poligrams and Polygons THE TRIANGLE The Triangle is the only Lineal Figure into which all surfaces can be reduced, for every Polygon can be divided into Triangles by drawing lines from its angles to its centre. Thus the Triangle is the first and simplest of all Lineal Figures. We refer to the Triad operating in all things, to the 3 Supernal Sephiroth, and to Binah the 3rd Sephirah. Among the Planets it is especially referred to Saturn; and among the Elements to Fire. As the colour of Saturn is black and the Triangle that of Fire, the Black Triangle will represent Saturn, and the Red Fire. The 3 Angles also symbolize the 3 Alchemical Principles of Nature, Mercury, Sulphur, and Salt. As there are 3600 in every great circle, the number of degrees cut off between its angles when inscribed within a Circle will be 120°, the number forming the astrological Trine inscribing the Trine within a circle, that is, reflected from every second point. THE SQUARE The Square is an important lineal figure which naturally represents stability and equilibrium. It includes the idea of surface and superficial measurement. It refers to the Quaternary in all things and to the Tetrad of the Letter of the Holy Name Tetragrammaton operating through the four Elements of Fire, Water, Air, and Earth. It is allotted to Chesed, the 4th Sephirah, and among the Planets it is referred to Jupiter. As representing the 4 Elements it represents their ultimation with the material form. The 4 angles also include the ideas of the 2 extremities of the Horizon, and the 2 extremities of the Median, which latter are usually called the Zenith and the Nadir: also the 4 Cardinal Points. -
Symmetry Is a Manifestation of Structural Harmony and Transformations of Geometric Structures, and Lies at the Very Foundation
Bridges Finland Conference Proceedings Some Girihs and Puzzles from the Interlocks of Similar or Complementary Figures Treatise Reza Sarhangi Department of Mathematics Towson University Towson, MD 21252 E-mail: [email protected] Abstract This paper is the second one to appear in the Bridges Proceedings that addresses some problems recorded in the Interlocks of Similar or Complementary Figures treatise. Most problems in the treatise are sketchy and some of them are incomprehensible. Nevertheless, this is the only document remaining from the medieval Persian that demonstrates how a girih can be constructed using compass and straightedge. Moreover, the treatise includes some puzzles in the transformation of a polygon into another one using mathematical formulas or dissection methods. It is believed that the document was written sometime between the 13th and 15th centuries by an anonymous mathematician/craftsman. The main intent of the present paper is to analyze a group of problems in this treatise to respond to questions such as what was in the mind of the treatise’s author, how the diagrams were constructed, is the conclusion offered by the author mathematically provable or is incorrect. All images, except for photographs, have been created by author. 1. Introduction There are a few documents such as treatises and scrolls in Persian mosaic design, that have survived for centuries. The Interlocks of Similar or Complementary Figures treatise [1], is one that is the source for this article. In the Interlocks document, one may find many interesting girihs and also some puzzles that are solved using mathematical formulas or dissection methods. Dissection, in the present literature, refers to cutting a geometric, two-dimensional shape, into pieces that can be rearranged to compose a different shape. -
The Order in Creation in Number and Geometry
THE ORDER IN CREATION IN NUMBER AND GEOMETRY Tontyn Hopman www.adhikara.com/number_and_geometry.html Illustrations by the author 2 About the origin of “The Order in Creation in Number and Geometry”. The author, Frederik (Tontyn) Hopman, was born in Holland in 1914, where he studied to become an architect. At the age of 18, after the death of his father, he had a powerful experience that led to his subsequent study of Oriental esoteric teachings. This was to become a life-long fascination. Responding to the call of the East, at the age of 21, he travelled to India by car. In those days this adventurous journey took many weeks. Once in India he married his travelling companion and settled down in Kashmir, where he lived with his young family for 12 years until in 1947 the invasion from Pakistan forced them to flee. Still in Asia, at the age of 38, Tontyn Hopman had a profound Kundalini awakening that gave his life a new dimension. It was during this awakening that he had a vision of Genesis, which revealed to him the ‘Order in Creation in Number and Geometry’. Around this time, however, Tontyn Hopman decided to return to Europe to enable his children to have a good education and he settled in Switzerland to practise his profession as an architect. Later he occupied himself with astrology and art therapy. Here, in Switzerland, after almost half a century, the memory of his vision came up again, with great clarity. Tontyn Hopman experienced a strong impulse to work on, and present the images that had been dormant for such a long time to the wider public. -
Dissecting and Folding Stacked Geometric Figures
Dissecting and Folding Stacked Geometric Figures Greg N. Frederickson Purdue University Copyright notice: Permission is granted only to DIMACS to post this copy of Greg N. Frederickson’s talk, “Dissecting and Folding Stacked Geometric Figures”, on its website. No permission is granted for others to copy any portions of this talk for their own or anyone else’s use. If you have what you feel is a justifiable use of this talk, contact me ( [email protected] ) to ask permission. Because producing this material was a lot of work, I reserve the right to deny any particular request. 1 A note about animations and videos None of the animations and videos were included when my powerpoint file was converted to a pdf file. Any slide that contains a picture with color but no title is the first frame of an animation or video. Selected animations are available from my webpages: http://www.cs.purdue.edu/homes/gnf/book3/stackfold.html http://www.cs.purdue.edu/homes/gnf/book3/stackfold2.html These animations were time-intensive to produce. Please show your appreciation by respecting my copyright. Dissection of one square to two squares [Plato, 4 th century, BCE] 2 Hinged dissection of one square to two squares (with 2 swing-hinged assemblages) Piano-hinge (fold-hinge) brings a piece A from being next to a piece B to being on top of B 3 Piano-hinged dissection of 1 square to 2 squares (with 2 assemblages) 4 Juggling 2 (or more) assemblages is a pain! So let’s change the game: Instead of having two smaller squares, let’s have just one , but twice as high. -
Kabbalah, Magic & the Great Work of Self Transformation
KABBALAH, MAGIC AHD THE GREAT WORK Of SELf-TRAHSfORMATIOH A COMPL€T€ COURS€ LYAM THOMAS CHRISTOPHER Llewellyn Publications Woodbury, Minnesota Contents Acknowledgments Vl1 one Though Only a Few Will Rise 1 two The First Steps 15 three The Secret Lineage 35 four Neophyte 57 five That Darkly Splendid World 89 SIX The Mind Born of Matter 129 seven The Liquid Intelligence 175 eight Fuel for the Fire 227 ntne The Portal 267 ten The Work of the Adept 315 Appendix A: The Consecration ofthe Adeptus Wand 331 Appendix B: Suggested Forms ofExercise 345 Endnotes 353 Works Cited 359 Index 363 Acknowledgments The first challenge to appear before the new student of magic is the overwhehning amount of published material from which he must prepare a road map of self-initiation. Without guidance, this is usually impossible. Therefore, lowe my biggest thanks to Peter and Laura Yorke of Ra Horakhty Temple, who provided my first exposure to self-initiation techniques in the Golden Dawn. Their years of expe rience with the Golden Dawn material yielded a structure of carefully selected ex ercises, which their students still use today to bring about a gradual transformation. WIthout such well-prescribed use of the Golden Dawn's techniques, it would have been difficult to make progress in its grade system. The basic structure of the course in this book is built on a foundation of the Golden Dawn's elemental grade system as my teachers passed it on. In particular, it develops further their choice to use the color correspondences of the Four Worlds, a piece of the original Golden Dawn system that very few occultists have recognized as an ini tiatory tool. -
Complementary N-Gon Waves and Shuffled Samples Noise
Proceedings of the 23rd International Conference on Digital Audio Effects (DAFx2020),(DAFx-20), Vienna, Vienna, Austria, Austria, September September 8–12, 2020-21 2020 COMPLEMENTARY N-GON WAVES AND SHUFFLED SAMPLES NOISE Dominik Chapman ABSTRACT A characteristic of an n-gon wave is that it retains angles of This paper introduces complementary n-gon waves and the shuf- the regular polygon or star polygon of which the waveform was fled samples noise effect. N-gon waves retain angles of the regular derived from. As such, some parts of the polygon can be recog- polygons and star polygons of which they are derived from in the nised when the waveform is visualised, as can be seen from fig- waveform itself. N-gon waves are researched by the author since ure 1. This characteristic distinguishes n-gon waves from other 2000 and were introduced to the public at ICMC|SMC in 2014. Complementary n-gon waves consist of an n-gon wave and a com- plementary angular wave. The complementary angular wave in- troduced in this paper complements an n-gon wave so that the two waveforms can be used to reconstruct the polygon of which the Figure 1: An n-gon wave is derived from a pentagon. The internal waveforms were derived from. If it is derived from a star polygon, angle of 3π=5 rad of the pentagon is retained in the shape of the it is not an n-gon wave and has its own characteristics. Investiga- wave and in the visualisation of the resulting pentagon wave on a tions into how geometry, audio, visual and perception are related cathode-ray oscilloscope. -
Icons of Mathematics an EXPLORATION of TWENTY KEY IMAGES Claudi Alsina and Roger B
AMS / MAA DOLCIANI MATHEMATICAL EXPOSITIONS VOL 45 Icons of Mathematics AN EXPLORATION OF TWENTY KEY IMAGES Claudi Alsina and Roger B. Nelsen i i “MABK018-FM” — 2011/5/16 — 19:53 — page i — #1 i i 10.1090/dol/045 Icons of Mathematics An Exploration of Twenty Key Images i i i i i i “MABK018-FM” — 2011/5/16 — 19:53 — page ii — #2 i i c 2011 by The Mathematical Association of America (Incorporated) Library of Congress Catalog Card Number 2011923441 Print ISBN 978-0-88385-352-8 Electronic ISBN 978-0-88385-986-5 Printed in the United States of America Current Printing (last digit): 10987654321 i i i i i i “MABK018-FM” — 2011/5/16 — 19:53 — page iii — #3 i i The Dolciani Mathematical Expositions NUMBER FORTY-FIVE Icons of Mathematics An Exploration of Twenty Key Images Claudi Alsina Universitat Politecnica` de Catalunya Roger B. Nelsen Lewis & Clark College Published and Distributed by The Mathematical Association of America i i i i i i “MABK018-FM” — 2011/5/16 — 19:53 — page iv — #4 i i DOLCIANI MATHEMATICAL EXPOSITIONS Committee on Books Frank Farris, Chair Dolciani Mathematical Expositions Editorial Board Underwood Dudley, Editor Jeremy S. Case Rosalie A. Dance Tevian Dray Thomas M. Halverson Patricia B. Humphrey Michael J. McAsey Michael J. Mossinghoff Jonathan Rogness Thomas Q. Sibley i i i i i i “MABK018-FM” — 2011/5/16 — 19:53 — page v — #5 i i The DOLCIANI MATHEMATICAL EXPOSITIONS series of the Mathematical As- sociation of America was established through a generous gift to the Association from Mary P. -
1970-2019 TOPIC INDEX for the College Mathematics Journal (Including the Two Year College Mathematics Journal)
1970-2019 TOPIC INDEX for The College Mathematics Journal (including the Two Year College Mathematics Journal) prepared by Donald E. Hooley Emeriti Professor of Mathematics Bluffton University, Bluffton, Ohio Each item in this index is listed under the topics for which it might be used in the classroom or for enrichment after the topic has been presented. Within each topic entries are listed in chronological order of publication. Each entry is given in the form: Title, author, volume:issue, year, page range, [C or F], [other topic cross-listings] where C indicates a classroom capsule or short note and F indicates a Fallacies, Flaws and Flimflam note. If there is nothing in this position the entry refers to an article unless it is a book review. The topic headings in this index are numbered and grouped as follows: 0 Precalculus Mathematics (also see 9) 0.1 Arithmetic (also see 9.3) 0.2 Algebra 0.3 Synthetic geometry 0.4 Analytic geometry 0.5 Conic sections 0.6 Trigonometry (also see 5.3) 0.7 Elementary theory of equations 0.8 Business mathematics 0.9 Techniques of proof (including mathematical induction 0.10 Software for precalculus mathematics 1 Mathematics Education 1.1 Teaching techniques and research reports 1.2 Courses and programs 2 History of Mathematics 2.1 History of mathematics before 1400 2.2 History of mathematics after 1400 2.3 Interviews 3 Discrete Mathematics 3.1 Graph theory 3.2 Combinatorics 3.3 Other topics in discrete mathematics (also see 6.3) 3.4 Software for discrete mathematics 4 Linear Algebra 4.1 Matrices, systems -
The Treasures of the Snow
THE TREASURES OF THE SNOW In what many claim to be the oldest Book of the Bible, the Lord God asks Job a question that should interest its readers: “Hast thou entered into the treasures of the snow…?” (Job 38:22). Unsurprisingly – the day of magnifying glass and microscope far distant – we gather that Job hadn’t – and thus infer that the question is really addressed to those more favourably placed. Indeed, we know that some will already have ‘entered into’ the wonders associated with a snow crystal – as ideally represented here…* …and will have been informed that of the myriad of such crystals that have fallen to earth since the Creation, no two are identical. So, we may reasonably ask, “What does the Designer intend us to learn from this beautiful, super-abundant, structure?” The beginnings of an answer must surely include the following: 6 is prominently displayed 1. in the outline of the central regular hexagon, and 2. in the overall form of the regular 6-pointed star, or hexagram. We therefore gather that six is highly regarded in the courts of heaven. But also from man’s point of view, it is the first of what mathematicians refer to as a perfect number [the term associated with any number that is equal to the sum of its factors – in this case, 1+2+3]. The sequence continues 28, 496, 8128…. – apparently without limit. Again, all known perfect numbers are triangular [meaning that they possess the geometry of an equilateral triangle when expressed absolutely as a close formation of uniform circular counters]. -
[Math.AG] 3 Aug 2005
CURVES IN CAGES: AN ALGEBRO-GEOMETRIC ZOO GABRIEL KATZ 1. Introduction. An algebraic plane curve is the solution set of a polynomial equation P (x, y)=0, where x and y are real or complex variables. By definition, the degree of the curve is the degree of the polynomial P (x, y).1 When P (x, y) is a product of two non-constant polynomials over a given number field, the curve is called reducible; otherwise, it is irreducible. This paper is concerned with families of plane algebraic curves that contain a given and quite special set of points X . We focus on the case in which the set X is formed by transversally intersecting pairs of lines selected from two given finite families. The union of all lines from both families is called a cage (this notion of cage will be made more precise later), and the intersection X consists of points at which a line from the first family intersects a line from the second. The points of X are called the nodes of the cage. This is a particular case of a more general problem. Let X be the intersection set of two plane algebraic curves D and E that do not share a common component, that is, do not contain a common irreducible curve. If d and e denote the degrees of D and E, respectively, then X consists of at most d · e points. When the cardinality of X is exactly d · e, X is called a complete intersection (complete intersections have many nice properties).