An Analysis of Mathematical Symmetries Used in Music (Honors)
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The Percussion Family 1 Table of Contents
THE CLEVELAND ORCHESTRA WHAT IS AN ORCHESTRA? Student Learning Lab for The Percussion Family 1 Table of Contents PART 1: Let’s Meet the Percussion Family ...................... 3 PART 2: Let’s Listen to Nagoya Marimbas ...................... 6 PART 3: Music Learning Lab ................................................ 8 2 PART 1: Let’s Meet the Percussion Family An orchestra consists of musicians organized by instrument “family” groups. The four instrument families are: strings, woodwinds, brass and percussion. Today we are going to explore the percussion family. Get your tapping fingers and toes ready! The percussion family includes all of the instruments that are “struck” in some way. We have no official records of when humans first used percussion instruments, but from ancient times, drums have been used for tribal dances and for communications of all kinds. Today, there are more instruments in the percussion family than in any other. They can be grouped into two types: 1. Percussion instruments that make just one pitch. These include: Snare drum, bass drum, cymbals, tambourine, triangle, wood block, gong, maracas and castanets Triangle Castanets Tambourine Snare Drum Wood Block Gong Maracas Bass Drum Cymbals 3 2. Percussion instruments that play different pitches, even a melody. These include: Kettle drums (also called timpani), the xylophone (and marimba), orchestra bells, the celesta and the piano Piano Celesta Orchestra Bells Xylophone Kettle Drum How percussion instruments work There are several ways to get a percussion instrument to make a sound. You can strike some percussion instruments with a stick or mallet (snare drum, bass drum, kettle drum, triangle, xylophone); or with your hand (tambourine). -
Amjad Ali Khan & Sharon Isbin
SUMMER 2 0 2 1 Contents 2 Welcome to Caramoor / Letter from the CEO and Chairman 3 Summer 2021 Calendar 8 Eat, Drink, & Listen! 9 Playing to Caramoor’s Strengths by Kathy Schuman 12 Meet Caramoor’s new CEO, Edward J. Lewis III 14 Introducing in“C”, Trimpin’s new sound art sculpture 17 Updating the Rosen House for the 2021 Season by Roanne Wilcox PROGRAM PAGES 20 Highlights from Our Recent Special Events 22 Become a Member 24 Thank You to Our Donors 32 Thank You to Our Volunteers 33 Caramoor Leadership 34 Caramoor Staff Cover Photo: Gabe Palacio ©2021 Caramoor Center for Music & the Arts General Information 914.232.5035 149 Girdle Ridge Road Box Office 914.232.1252 PO Box 816 caramoor.org Katonah, NY 10536 Program Magazine Staff Caramoor Grounds & Performance Photos Laura Schiller, Publications Editor Gabe Palacio Photography, Katonah, NY Adam Neumann, aanstudio.com, Design gabepalacio.com Tahra Delfin,Vice President & Chief Marketing Officer Brittany Laughlin, Director of Marketing & Communications Roslyn Wertheimer, Marketing Manager Sean Jones, Marketing Coordinator Caramoor / 1 Dear Friends, It is with great joy and excitement that we welcome you back to Caramoor for our Summer 2021 season. We are so grateful that you have chosen to join us for the return of live concerts as we reopen our Venetian Theater and beautiful grounds to the public. We are thrilled to present a full summer of 35 live in-person performances – seven weeks of the ‘official’ season followed by two post-season concert series. This season we are proud to showcase our commitment to adventurous programming, including two Caramoor-commissioned world premieres, three U.S. -
Hedwig's Theme
Hedwig’s Theme SLS O L E ARN ING L AB Composer John Williams, best known for his movie soundtracks to films such as Star Wars and Harry Potter, has written some of the most iconic musical themes of our time. Let’s break this sentence down: • A composer is someone who writes music. • A soundtrack is music that accompanies a movie. • A musical theme is a small bit of recognizable music within a larger piece. Listen to your favorite pop song. It probably has a chorus, the recurring part that you love to sing along to. That’s kind of like a musical theme in “classical” music. Musical Themes in Hedwig’s Theme One of the most recognizable musical themes in cinematic history is Hedwig’s Theme, composed by John Williams for the movie Harry Potter and The Sorcerer’s Stone. The name suggests that the main musical theme represents Harry Potter’s owl, Hedwig. We first hear the theme played on the celesta before it is passed around to different instruments of the orchestra. A celesta, sometimes spelled celeste, looks like a miniature upright piano. When a key is pressed down, a hammer strikes a metal plate (a piano’s hammer strikes a string). You might think it sounds like a music box. Listen to the first theme from Hedwig’s Theme (0:00-0:40). Musical themes can represent different people, places, events, and even emotions. And composers aren’t limited to just one musical theme per piece. For Hedwig’s Theme, Williams composed three different musical themes. -
Tchaikovsky's Fifth Symphony
NOTES ON THE PROGRAM BY LAURIE SHULMAN, ©2019 Tchaikovsky’s Fifth Symphony ONE-MINUTE NOTES Bartók: Music for Strings, Percussion and Celesta This work demonstrates the enormous spectrum of sound color possible without woodwinds or brass. Treating piano, xylophone and celesta as pitched percussion and harp as part of the string family, Bartók mesmerizes us with hazy washes of sound and brilliant cloudbursts of exuberant joy. Tchaikovsky: Symphony No. 5 A slow march in the first movement of this beloved symphony gains passion and momentum as it unfolds. The unforgettable Andante cantabile horn solo will touch your heart. Tchaikovsky’s waltz reminds us he was a great ballet composer, while his triumphant finale brings satisfying closure. BARTÓK: Music for Strings, Percussion and Celesta, Sz. 106, BB 114 BÉLA BARTÓK Born: March 25, 1881, in Nagyszentmiklós, Transylvania (Hungary) Died: September 26, 1945, in New York, New York Composed: June to 7 September 1936 World Premiere: January 21, 1937, in Basel, Switzerland. Paul Sacher conducted the Basel Chamber Orchestra. NJSO Premiere: 1985–86 season. George Manahan conducted. Duration: 27 minutes As the shadow of Nazism lengthened over Europe in the mid-1930s, Béla Bartók dug in his heels philosophically. A fierce opponent of fascism, he categorically refused to perform concerts in Nazi Germany, and he declined even radio broadcast performances of his compositions in either Germany or Italy. At the same time, his fierce loyalty to his own country, and his love of Central Europe’s rich musical heritage, 2 resurfaced in his composition. Early in his career, he and his countryman Zoltán Kodály had conducted important ethnomusicological research into the folk music of remote sectors in Hungary, Slovakia and Romania. -
The Age of Addiction David T. Courtwright Belknap (2019) Opioids
The Age of Addiction David T. Courtwright Belknap (2019) Opioids, processed foods, social-media apps: we navigate an addictive environment rife with products that target neural pathways involved in emotion and appetite. In this incisive medical history, David Courtwright traces the evolution of “limbic capitalism” from prehistory. Meshing psychology, culture, socio-economics and urbanization, it’s a story deeply entangled in slavery, corruption and profiteering. Although reform has proved complex, Courtwright posits a solution: an alliance of progressives and traditionalists aimed at combating excess through policy, taxation and public education. Cosmological Koans Anthony Aguirre W. W. Norton (2019) Cosmologist Anthony Aguirre explores the nature of the physical Universe through an intriguing medium — the koan, that paradoxical riddle of Zen Buddhist teaching. Aguirre uses the approach playfully, to explore the “strange hinterland” between the realities of cosmic structure and our individual perception of them. But whereas his discussions of time, space, motion, forces and the quantum are eloquent, the addition of a second framing device — a fictional journey from Enlightenment Italy to China — often obscures rather than clarifies these chewy cosmological concepts and theories. Vanishing Fish Daniel Pauly Greystone (2019) In 1995, marine biologist Daniel Pauly coined the term ‘shifting baselines’ to describe perceptions of environmental degradation: what is viewed as pristine today would strike our ancestors as damaged. In these trenchant essays, Pauly trains that lens on fisheries, revealing a global ‘aquacalypse’. A “toxic triad” of under-reported catches, overfishing and deflected blame drives the crisis, he argues, complicated by issues such as the fishmeal industry, which absorbs a quarter of the global catch. -
Golden Ratio: a Subtle Regulator in Our Body and Cardiovascular System?
See discussions, stats, and author profiles for this publication at: https://www.researchgate.net/publication/306051060 Golden Ratio: A subtle regulator in our body and cardiovascular system? Article in International journal of cardiology · August 2016 DOI: 10.1016/j.ijcard.2016.08.147 CITATIONS READS 8 266 3 authors, including: Selcuk Ozturk Ertan Yetkin Ankara University Istinye University, LIV Hospital 56 PUBLICATIONS 121 CITATIONS 227 PUBLICATIONS 3,259 CITATIONS SEE PROFILE SEE PROFILE Some of the authors of this publication are also working on these related projects: microbiology View project golden ratio View project All content following this page was uploaded by Ertan Yetkin on 23 August 2019. The user has requested enhancement of the downloaded file. International Journal of Cardiology 223 (2016) 143–145 Contents lists available at ScienceDirect International Journal of Cardiology journal homepage: www.elsevier.com/locate/ijcard Review Golden ratio: A subtle regulator in our body and cardiovascular system? Selcuk Ozturk a, Kenan Yalta b, Ertan Yetkin c,⁎ a Abant Izzet Baysal University, Faculty of Medicine, Department of Cardiology, Bolu, Turkey b Trakya University, Faculty of Medicine, Department of Cardiology, Edirne, Turkey c Yenisehir Hospital, Division of Cardiology, Mersin, Turkey article info abstract Article history: Golden ratio, which is an irrational number and also named as the Greek letter Phi (φ), is defined as the ratio be- Received 13 July 2016 tween two lines of unequal length, where the ratio of the lengths of the shorter to the longer is the same as the Accepted 7 August 2016 ratio between the lengths of the longer and the sum of the lengths. -
Music: Broken Symmetry, Geometry, and Complexity Gary W
Music: Broken Symmetry, Geometry, and Complexity Gary W. Don, Karyn K. Muir, Gordon B. Volk, James S. Walker he relation between mathematics and Melody contains both pitch and rhythm. Is • music has a long and rich history, in- it possible to objectively describe their con- cluding: Pythagorean harmonic theory, nection? fundamentals and overtones, frequency Is it possible to objectively describe the com- • Tand pitch, and mathematical group the- plexity of musical rhythm? ory in musical scores [7, 47, 56, 15]. This article In discussing these and other questions, we shall is part of a special issue on the theme of math- outline the mathematical methods we use and ematics, creativity, and the arts. We shall explore provide some illustrative examples from a wide some of the ways that mathematics can aid in variety of music. creativity and understanding artistic expression The paper is organized as follows. We first sum- in the realm of the musical arts. In particular, we marize the mathematical method of Gabor trans- hope to provide some intriguing new insights on forms (also known as short-time Fourier trans- such questions as: forms, or spectrograms). This summary empha- sizes the use of a discrete Gabor frame to perform Does Louis Armstrong’s voice sound like his • the analysis. The section that follows illustrates trumpet? the value of spectrograms in providing objec- What do Ludwig van Beethoven, Ben- • tive descriptions of musical performance and the ny Goodman, and Jimi Hendrix have in geometric time-frequency structure of recorded common? musical sound. Our examples cover a wide range How does the brain fool us sometimes • of musical genres and interpretation styles, in- when listening to music? And how have cluding: Pavarotti singing an aria by Puccini [17], composers used such illusions? the 1982 Atlanta Symphony Orchestra recording How can mathematics help us create new of Copland’s Appalachian Spring symphony [5], • music? the 1950 Louis Armstrong recording of “La Vie en Rose” [64], the 1970 rock music introduction to Gary W. -
Decagonal and Quasi-Crystalline Tilings in Medieval Islamic Architecture
REPORTS 21. Materials and methods are available as supporting 27. N. Panagia et al., Astrophys. J. 459, L17 (1996). Supporting Online Material material on Science Online. 28. The authors would like to thank L. Nelson for providing www.sciencemag.org/cgi/content/full/315/5815/1103/DC1 22. A. Heger, N. Langer, Astron. Astrophys. 334, 210 (1998). access to the Bishop/Sherbrooke Beowulf cluster (Elix3) Materials and Methods 23. A. P. Crotts, S. R. Heathcote, Nature 350, 683 (1991). which was used to perform the interacting winds SOM Text 24. J. Xu, A. Crotts, W. Kunkel, Astrophys. J. 451, 806 (1995). calculations. The binary merger calculations were Tables S1 and S2 25. B. Sugerman, A. Crotts, W. Kunkel, S. Heathcote, performed on the UK Astrophysical Fluids Facility. References S. Lawrence, Astrophys. J. 627, 888 (2005). T.M. acknowledges support from the Research Training Movies S1 and S2 26. N. Soker, Astrophys. J., in press; preprint available online Network “Gamma-Ray Bursts: An Enigma and a Tool” 16 October 2006; accepted 15 January 2007 (http://xxx.lanl.gov/abs/astro-ph/0610655) during part of this work. 10.1126/science.1136351 be drawn using the direct strapwork method Decagonal and Quasi-Crystalline (Fig. 1, A to D). However, an alternative geometric construction can generate the same pattern (Fig. 1E, right). At the intersections Tilings in Medieval Islamic Architecture between all pairs of line segments not within a 10/3 star, bisecting the larger 108° angle yields 1 2 Peter J. Lu * and Paul J. Steinhardt line segments (dotted red in the figure) that, when extended until they intersect, form three distinct The conventional view holds that girih (geometric star-and-polygon, or strapwork) patterns in polygons: the decagon decorated with a 10/3 star medieval Islamic architecture were conceived by their designers as a network of zigzagging lines, line pattern, an elongated hexagon decorated where the lines were drafted directly with a straightedge and a compass. -
The Golden Ratio and the Diagonal of the Square
Bridges Finland Conference Proceedings The Golden Ratio and the Diagonal of the Square Gabriele Gelatti Genoa, Italy [email protected] www.mosaicidiciottoli.it Abstract An elegant geometric 4-step construction of the Golden Ratio from the diagonals of the square has inspired the pattern for an artwork applying a general property of nested rotated squares to the Golden Ratio. A 4-step Construction of the Golden Ratio from the Diagonals of the Square For convenience, we work with the reciprocal of the Golden Ratio that we define as: φ = √(5/4) – (1/2). Let ABCD be a unit square, O being the intersection of its diagonals. We obtain O' by symmetry, reflecting O on the line segment CD. Let C' be the point on BD such that |C'D| = |CD|. We now consider the circle centred at O' and having radius |C'O'|. Let C" denote the intersection of this circle with the line segment AD. We claim that C" cuts AD in the Golden Ratio. B C' C' O O' O' A C'' C'' E Figure 1: Construction of φ from the diagonals of the square and demonstration. Demonstration In Figure 1 since |CD| = 1, we have |C'D| = 1 and |O'D| = √(1/2). By the Pythagorean Theorem: |C'O'| = √(3/2) = |C''O'|, and |O'E| = 1/2 = |ED|, so that |DC''| = √(5/4) – (1/2) = φ. Golden Ratio Pattern from the Diagonals of Nested Squares The construction of the Golden Ratio from the diagonal of the square has inspired the research of a pattern of squares where the Golden Ratio is generated only by the diagonals. -
Linking Math with Art Through the Elements of Design
2007 Asilomar Mathematics Conference Linking Math With Art Through The Elements of Design Presented by Renée Goularte Thermalito Union School District • Oroville, California www.share2learn.com [email protected] The Elements of Design ~ An Overview The elements of design are the components which make up any visual design or work or art. They can be isolated and defined, but all works of visual art will contain most, if not all, the elements. Point: A point is essentially a dot. By definition, it has no height or width, but in art a point is a small, dot-like pencil mark or short brush stroke. Line: A line can be made by a series of points, a pencil or brush stroke, or can be implied by the edge of an object. Shape and Form: Shapes are defined by lines or edges. They can be geometric or organic, predictably regular or free-form. Form is an illusion of three- dimensionality given to a flat shape. Texture: Texture can be tactile or visual. Tactile texture is something you can feel; visual texture relies on the eyes to help the viewer imagine how something might feel. Texture is closely related to Pattern. Pattern: Patterns rely on repetition or organization of shapes, colors, or other qualities. The illusion of movement in a composition depends on placement of subject matter. Pattern is closely related to Texture and is not always included in a list of the elements of design. Color and Value: Color, also known as hue, is one of the most powerful elements. It can evoke emotion and mood, enhance texture, and help create the illusion of distance. -
Examples of the Golden Ratio You Can Find in Nature
Examples Of The Golden Ratio You Can Find In Nature It is often said that math contains the answers to most of universe’s questions. Math manifests itself everywhere. One such example is the Golden Ratio. This famous Fibonacci sequence has fascinated mathematicians, scientist and artists for many hundreds of years. The Golden Ratio manifests itself in many places across the universe, including right here on Earth, it is part of Earth’s nature and it is part of us. In mathematics, the Fibonacci sequence is the ordering of numbers in the following integer sequence: 0, 1, 1, 2, 3, 5, 8, 13, 21, 34, 55, 89, 144… and so on forever. Each number is the sum of the two numbers that precede it. The Fibonacci sequence is seen all around us. Let’s explore how your body and various items, like seashells and flowers, demonstrate the sequence in the real world. As you probably know by now, the Fibonacci sequence shows up in the most unexpected places. Here are some of them: 1. Flower petals number of petals in a flower is often one of the following numbers: 3, 5, 8, 13, 21, 34 or 55. For example, the lily has three petals, buttercups have five of them, the chicory has 21 of them, the daisy has often 34 or 55 petals, etc. 2. Faces Faces, both human and nonhuman, abound with examples of the Golden Ratio. The mouth and nose are each positioned at golden sections of the distance between the eyes and the bottom of the chin. -
The Golden Relationships: an Exploration of Fibonacci Numbers and Phi
The Golden Relationships: An Exploration of Fibonacci Numbers and Phi Anthony Rayvon Watson Faculty Advisor: Paul Manos Duke University Biology Department April, 2017 This project was submitted in partial fulfillment of the requirements for the degree of Master of Arts in the Graduate Liberal Studies Program in the Graduate School of Duke University. Copyright by Anthony Rayvon Watson 2017 Abstract The Greek letter Ø (Phi), represents one of the most mysterious numbers (1.618…) known to humankind. Historical reverence for Ø led to the monikers “The Golden Number” or “The Devine Proportion”. This simple, yet enigmatic number, is inseparably linked to the recursive mathematical sequence that produces Fibonacci numbers. Fibonacci numbers have fascinated and perplexed scholars, scientists, and the general public since they were first identified by Leonardo Fibonacci in his seminal work Liber Abacci in 1202. These transcendent numbers which are inextricably bound to the Golden Number, seemingly touch every aspect of plant, animal, and human existence. The most puzzling aspect of these numbers resides in their universal nature and our inability to explain their pervasiveness. An understanding of these numbers is often clouded by those who seemingly find Fibonacci or Golden Number associations in everything that exists. Indeed, undeniable relationships do exist; however, some represent aspirant thinking from the observer’s perspective. My work explores a number of cases where these relationships appear to exist and offers scholarly sources that either support or refute the claims. By analyzing research relating to biology, art, architecture, and other contrasting subject areas, I paint a broad picture illustrating the extensive nature of these numbers.