scholarly journals RoboMusicKids – Music Education with Robotic Building Blocks

Author(s):  
Jacob Nielsen ◽  
Niels K. Baerendsen ◽  
Carsten Jessen
2003 ◽  
Vol 7 (1_suppl) ◽  
pp. 157-174 ◽  
Author(s):  
Johannella Tafuri ◽  
Gabriella Baldi ◽  
Roberto Caterina

Many factors influence the activation and maturation of the compositional process in children. Although there are numerous studies on children's processes, production and behaviour, little has been done concerning the influence of the didactic strategies used by the teacher, which may actually encourage or suppress such processes. Children are generally asked to create a composition that has a beginning, a middle and end, but we wondered whether it was really necessary to request this structure or if children of a certain age already adopt it spontaneously, so teachers can use such skills as building blocks for further learning. We investigated if children, without any specific music education, possess a certain ability to use specific types of beginnings and/or endings and how they improve. We asked 132 primary school children, aged 7–10, to perform six improvisations, five with a soprano glockenspiel, and one with tambourine. A total of 792 pieces were recorded and analysed using a specific classification system. After referring to studies on musical theory and semiotics to clarify the concept of beginning and ending in a piece of music, we are presenting the results which show that a certain percentage of children aged 7 already possess the mentioned skills, and that there is a gradual spontaneous acquisition of the beginning/ending conventions. Children improve year by year, with greater progress between 8 and 9 years.


2021 ◽  
Author(s):  
Michael Edwards ◽  
John Kitchen ◽  
Nikki Moran ◽  
Zack Moir ◽  
Richard Worth

This open e-book is the result of a project funded by a University of Edinburgh Student Experience Grant, Open e-Textbooks for access to music education. The project was a collaboration between Open Educational Resources Service, and staff and student interns from the Reid School of Music. As a proof-of-concept endeavour, the project aimed to explore how effectively we could convert existing course content into convenient and reusable open formats suitable for use by staff and students both within and beyond the University. The resulting e-book presents open licensed educational materials that deal with the building blocks of musical stave (sometimes known as staff) notation, a language designed to communicate about musical ideas which is in use around the world. The resources in this e-book include video lectures and their transcripts, as well as supporting text explanations, examples and illustrations. The materials introduce topics such as the organisation of discrete pitches into scales and intervals, and temporal organisation of musical sounds as duration, in rhythm and metre. These rudiments are presented through an introduction to the elements of five-line stave notation, and through critical discussion of the advantages and limitations served by notational systems in the representation and analysis of musical sounds. This serves as the basis of further explanations, to illustrate musical concepts including key, time signature, harmonisation, cadence and modulation. We anticipate that subsequent versions of this e-book will update and develop the contents and presentation of the materials, following the success of this student-led collaboration.


1997 ◽  
Vol 161 ◽  
pp. 23-47 ◽  
Author(s):  
Louis J. Allamandola ◽  
Max P. Bernstein ◽  
Scott A. Sandford

AbstractInfrared observations, combined with realistic laboratory simulations, have revolutionized our understanding of interstellar ice and dust, the building blocks of comets. Since comets are thought to be a major source of the volatiles on the primative earth, their organic inventory is of central importance to questions concerning the origin of life. Ices in molecular clouds contain the very simple molecules H2O, CH3OH, CO, CO2, CH4, H2, and probably some NH3and H2CO, as well as more complex species including nitriles, ketones, and esters. The evidence for these, as well as carbonrich materials such as polycyclic aromatic hydrocarbons (PAHs), microdiamonds, and amorphous carbon is briefly reviewed. This is followed by a detailed summary of interstellar/precometary ice photochemical evolution based on laboratory studies of realistic polar ice analogs. Ultraviolet photolysis of these ices produces H2, H2CO, CO2, CO, CH4, HCO, and the moderately complex organic molecules: CH3CH2OH (ethanol), HC(= O)NH2(formamide), CH3C(= O)NH2(acetamide), R-CN (nitriles), and hexamethylenetetramine (HMT, C6H12N4), as well as more complex species including polyoxymethylene and related species (POMs), amides, and ketones. The ready formation of these organic species from simple starting mixtures, the ice chemistry that ensues when these ices are mildly warmed, plus the observation that the more complex refractory photoproducts show lipid-like behavior and readily self organize into droplets upon exposure to liquid water suggest that comets may have played an important role in the origin of life.


Author(s):  
D.E. Brownlee ◽  
A.L. Albee

Comets are primitive, kilometer-sized bodies that formed in the outer regions of the solar system. Composed of ice and dust, comets are generally believed to be relic building blocks of the outer solar system that have been preserved at cryogenic temperatures since the formation of the Sun and planets. The analysis of cometary material is particularly important because the properties of cometary material provide direct information on the processes and environments that formed and influenced solid matter both in the early solar system and in the interstellar environments that preceded it.The first direct analyses of proven comet dust were made during the Soviet and European spacecraft encounters with Comet Halley in 1986. These missions carried time-of-flight mass spectrometers that measured mass spectra of individual micron and smaller particles. The Halley measurements were semi-quantitative but they showed that comet dust is a complex fine-grained mixture of silicates and organic material. A full understanding of comet dust will require detailed morphological, mineralogical, elemental and isotopic analysis at the finest possible scale. Electron microscopy and related microbeam techniques will play key roles in the analysis. The present and future of electron microscopy of comet samples involves laboratory study of micrometeorites collected in the stratosphere, in-situ SEM analysis of particles collected at a comet and laboratory study of samples collected from a comet and returned to the Earth for detailed study.


Author(s):  
Yeshayahu Talmon

To achieve complete microstructural characterization of self-aggregating systems, one needs direct images in addition to quantitative information from non-imaging, e.g., scattering or Theological measurements, techniques. Cryo-TEM enables us to image fluid microstructures at better than one nanometer resolution, with minimal specimen preparation artifacts. Direct images are used to determine the “building blocks” of the fluid microstructure; these are used to build reliable physical models with which quantitative information from techniques such as small-angle x-ray or neutron scattering can be analyzed.To prepare vitrified specimens of microstructured fluids, we have developed the Controlled Environment Vitrification System (CEVS), that enables us to prepare samples under controlled temperature and humidity conditions, thus minimizing microstructural rearrangement due to volatile evaporation or temperature changes. The CEVS may be used to trigger on-the-grid processes to induce formation of new phases, or to study intermediate, transient structures during change of phase (“time-resolved cryo-TEM”). Recently we have developed a new CEVS, where temperature and humidity are controlled by continuous flow of a mixture of humidified and dry air streams.


2016 ◽  
Vol 37 (3) ◽  
pp. 181-193 ◽  
Author(s):  
Aire Mill ◽  
Anu Realo ◽  
Jüri Allik

Abstract. Intraindividual variability, along with the more frequently studied between-person variability, has been argued to be one of the basic building blocks of emotional experience. The aim of the current study is to examine whether intraindividual variability in affect predicts tiredness in daily life. Intraindividual variability in affect was studied with the experience sampling method in a group of 110 participants (aged between 19 and 84 years) during 14 consecutive days on seven randomly determined occasions per day. The results suggest that affect variability is a stable construct over time and situations. Our findings also demonstrate that intraindividual variability in affect has a unique role in predicting increased levels of tiredness at the momentary level as well at the level of individuals.


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