Over the past 38 years, Kadon Enterprises has mindfully created an encyclopedic collection of geometrical GAMEPUZZLES™. Their puzzles & games beckon to a broad audience that yearns for creativity and deep order: children, artists, teachers, recreational & professional mathematicians. Just when you come to believe you have mind-mined all the beauty their puzzles have to reveal, you can revisit their puzzles or again dip into their whirlpool of a catalog and observe like Michael Corleone in the Godfather: "Just when I thought I was out, they pull me back in".
From the Kadon Enterprises website "To create beauty. To capture a spark of cosmic truthwithin a model you can hold in your eye, your mind, your hand...and move it about at will. To transmute chaos into orderand define that order in a myriad of lovely ways.To start from a singularityand build to those levels of complexity that most enchant you.To weave diversity into the sweetest harmony.To explore roads as yet not dreamed of,perchance to create beauty."
Kate Jones, President of Kadon Enterprises I'm delighted to provide an itinerary of progressive discoveries for your [Curiosity Shoppe] students. How's this list for exploring reality from the singularity to infinity: Poly-5 the foundation of all combinatorial insights Sextillionsclimbing higher mountains Quintillionsinto the 3rd dimension Hexnut Jr.plane-filling with hexagons Iamond Ringfrom singularity to level 7, tiling with triangles Rombixdissections and recombinations of rhombs MiniMatch-Idelightful introduction to edge-matching; the philosophy of neighborly cooperation Trifoliagrowing complexity in diversity accommodation L-Sixteenintegrating multiple goals Arc Anglesthe golden ratio plus connective issues Kite Mosaikintroduction to inflation by the golden ratio Hexdominoesmath as art, the combinatorics of color and shape, the limits of mapping Intarsiabillions and billions of symmetries, a philosophical capsule of complexity and artistic creation This baker's dozen should give you a good cross-section of types and challenge levels, serving also as stepping stones for building a philosophy of questing and questioning the real world of materials and thought. In teen parlance, these are the coolest. Thank you for this opportunity to introduce our work to the next generation.
Jones, K. (2004). Combinatorial philosophy. In B. Cipra, E. D. Demaine, M. L. Demaine, & T. Rogers (Eds), Tribute to a mathemagician. Boca Raton, FL: CRC Press.
Carson, G. S. (1973, November)), Soma cubes. Mathematics Teacher, pp. 583-592. Frederickson, G. (2013). Artfully folding hexagons, dodecagons, and dodecagrams. In George W. Hart, & Reza Sarhangi (Eds.), Proceedings of Bridges 2013: Mathematics, art, music, architecture, education, culture (pp. 63-70). Phoenix, AZ: Tesselations Publishing. Retrieved from http://archive.bridgesmathart.org/2017/bridges2017-63.pdf Spector, D. (1982, May), Soma: A unique object for mathematical study. Mathematics Teacher, pp. 404-407. Thatcher, D. H. (2001, March). The tangram conundrum. Mathematics Teaching in the Middle School, 6(7), pp. 394-399. Tian, Xiaoxi (2012). The art and mathematics of tangrams. In R. Bosch, D. McKenna, & R. Sarhangi (Eds.), Proceedings of Bridges 2012: Mathematics, art, music, architecture, education, culture (pp. 553-556). Phoenix, AZ: Tesselations Publishing. Retrieved from: http://archive.bridgesmathart.org/2015/bridges2015-573.pdf
Slocum, J., Botermans, J., Gebhardt, D., Ma, M., Ma, X., Raizer, H., et. al. (2004). The tangram book: The story of the Chinese puzzle with over 2000 puzzles to solve.
4 Tricky Two-Way PuzzlesMathArtFun The pieces of 4 squares are rearranged to form 4 different geometric shape.
4 Tricky Two-Way Star PuzzlesMathArtFun The pieces of 4 squares are rearranged to form 4 different star shapes.
Puzzle Bookleta2 +b2 = c2Puzzle Master An example of Farkas Bolyai's proof that any 2 polygons with the same area can be dissected into each other From the Peter Gal puzzle booklet series.
Anthony, H., & Hackenberg, A. (2005, November). Making quilts without sewing: Investigating planar symmetries in southern quilts. Mathematics Teacher, 99(4), pp. 270-276. Naylor, M., & Hart, V. (2011). Human geometry workshop. In R. Sarhangi. & C. H. Sequin (Eds.), Proceedings of Bridges 2011: Mathematics, art, music, architecture, education, culture (pp. 649-656). Phoenix, AZ: Tesselations Publishing. Retrieved from: http://archive.bridgesmathart.org/2011/bridges2011-649.pdf Rosco, M. B., & Zephrs, J. (2016, August). Quilt block symmetries. Mathematics Teaching in the Middle School 22(1), pp. 18-27. Soto-Johnson, H., & Bechthold, D.(2004, March). Tessellating the sphere with regular polygons. Mathematics Teacher, 97(3), pp. 165-167. Tennant, R. (2003). Islamic constructions: The geometry needed by craftsmen. In J. Barrallo, N. Friedman, J. A. Maldonado, J. Martinez-Aroza, R. Sarhangi, & C. Sequin. Mathematics, art, music, architecture, education, culture (pp. 459-464). Phoenix, AZ: Tessellations Publishing. Retrieved from http://archive.bridgesmathart.org/2003/bridges2003-459.pdf
Grunbaum, B., & Shephard, G. C. (2016). Tilings and Patterns (2nd ed.)
Bellos, A. (2016). Visions of the universe: A coloring journey through math's great mysteries.
IzziThinkFun
Izzi 2ThinkFun
Beyer, J. (1999). Designing tessellations: The secrets of interlocking patterns.
Seymour, D. (1997). Tessellation teacher masters.
Sutton, D., & Brand (2007). Islamic design: A genius for geometry.
HypnoGraphThinkFunCreate complex epicycloid drawings. Parts can be configured differently to create drawings using the 13 interchangeable gears of varying sizes. Used guided setups or rearrange the gears to create unique designs. instructions
Full Page Gear SetWild GearsThe Full Page Gear Set V3 is cut from a 15x15 inch sheet of clear acrylic and contains 28 gears ranging in size from 12 to 210 teeth. This gear set was designed specifically to make designs that fill a standard sheet of paper. although <1 to >20 inch designs are possible. This gear set includes two triangular gears and a square gear.
Hart, G., & Heathfield, E. (2017). Making math visible. In D. Swart, C. H. Sequin, & K. Fenyvesi (Eds.), Proceedings of Bridges 2017: Mathematics, art, music, architecture, education, culture (pp. 63-70). Phoenix, AZ: Tesselations Publishing. Retrieved from http://archive.bridgesmathart.org/2017/bridges2017-63.pdf Hart, G. (2006). Sculpture puzzles. In R. Sarhangi. & J. Sharp (Eds.), Proceedings of Bridges 2011: Mathematics, art, music, architecture, education, culture (pp. 195-202). Phoenix, AZ: Tesselations Publishing. Retrieved from: http://archive.bridgesmathart.org/2006/bridges2006-195.pdf Hart, G. (2011). Symmetric Stick Puzzles. In R. Sarhangi. & C. H. Sequin (Eds.), Proceedings of Bridges 2011: Mathematics, art, music, architecture, education, culture (pp. 357-364). Phoenix, AZ: Tesselations Publishing. Retrieved from: http://archive.bridgesmathart.org/2011/bridges2011-357.pdf
GeomeTricks is a series of 2D and 3D geometry project books for students in middle school and high school, based on free SketchUp Make software. GeomeTricks projects are hands-on, step-by-step exercises that produce colorful and interesting geometric models. Diagrams are for Sketchup Make 2014 (or later).
Kaleidoscopes
Kaplan, G., Gross, R., & McComas, K. (2015). Mathematics throught the lense of a kaleidoscope: A student-centered approach to building bridges between mathematics and art. In K. Delp, C. S. Kaplan, D. McKenna, & R. Sarhangi (Eds.), Proceedings of Bridges 2015: Mathematics, art, music, architecture, education, culture (pp. 573--580). Phoenix, AZ: Tesselations Publishing. Retrieved from: http://archive.bridgesmathart.org/2015/bridges2015-573.pdf
Import images into an onlin kaleidoscope creation tool @KrazyDad
Brewster Kaleidoscope SocietyAn organization for the creators, sellers, and collectors of kaleidoscopes. The site includes in-depth information on the history and collecting of kaleidoscopes.
Baker, C. (1999). Kaleidoscopes: Wonders of wonders.
Newlin, G. (1999). Simple kaleidoscopes: 24 spectacular scopes to make.
An online version of the thirteen books of Euclid's 'Elements' created by David Joyce with static images and/or java applet simulations illustrating the text.
Abbott, E. A. (2008). 'Flatland: A romance of many dimensions. Originally published in 1884. Annotated edition by Ian Stewart. There are at least 20 editions of this classic Victorian work -- this one is top notch. Flatland (wikipedia)
Anderson, R., & Princko, J. A. (2011, March). What if we lived in Flatland? Mathematics Teaching in the Middle School, 16(7), pp. 400-406.
Flatland: The MovieHome Edition: $19.95School Site $149.95* *includes teacher notes & worksheets Comments: 'Flatland: The Movie' is a loose adaption of E. A. Abbott's book. It engages spatial imagination as the viewer travels to lands in which the residents are points, lines, 2D, and 3D shapes -- and teases the audience with the existence of a 4-dimensional world. 'Flatland 2: Sphereland', an adaption of a sequel not written by E. A. Abbot, is not as coherent or engaging as the original award-winning movie.
Flatland: The Game of Many DimensionsWishlessness Ages: 6+, 2-4 players, 15 mins. A game inspired by the Victorian novel Flatland. Players put together their hands of geometric character shapes - custom etched into a set of twelve dice. The strength of each piece is determined by the number of sides and the figure's dimensionality. This is strategy rather than a math game. Flatland - Video Tutorial
Stewart, I. (2002). Flatterland: Like flatland, only more so. Imaginative sequel to Flat Land that extends the imaginative exploration of space from 0-3 to modern geometries (up to 10 dimensions).
Allen, J. (2012). Making geometry: Exploring three dimensional forms.
Hidetoshi, F., & Rothman, T. (2008). Sacred mathematics: Japanese temple geometry.
Olsen, S. (2006). The golden section: Nature’s greatest secret.
Posamentier, A., & Lehmann, I. (2012). The secrets of triangles: A mathematical journey.
Southall, E. (2017). Geometry snacks: Bite size problems and multiple ways to solve them.
Southall, E. (2018). More geometry snacks: Bite size problems and multiple ways to solve them.
Sutton, D.(2009). Ruler and compass: Practical geometric constructions.
Wells, D. (1992). The Penguin dictionary of curious and interesting geometry.