Redzamās skaņas – mākslinieciski pētījumi fotoakustikā

Paula Vītola
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Abstract

Since 2015, the author of the article has been researching the photoacoustic effect in her artistic work, experimenting, and developing various prototypes and artworks that allow visitors to experience the effect and understand some of its principles. The photoacoustic effect is a process where sound is generated, recorded, or transmitted using photosensitive material. The article describes the author’s creative process, methods, and practical research and draws conclusions about the role of the artistic experience in producing knowledge and informing audiences about the working principles of immaterial energies and invisible processes. The research was inspired by the discovery of the photoacoustic effect by Alexander Graham Bell (1847–1922). In 1880, he invented the photophone, also known as the sun telephone. The invention was met with public criticism, but the nature of the phenomenon inspired Bell, so he continued his research, believing in its potential and possible artistic use. The first experiments by the author on recording sound using light were done using simple and available materials and technology. A simple microphone was built with a mirror and a solar cell to record sounds with the sunlight. The mirror picks up voice and environmental sounds, and the reflected light is modulated accordingly. The research continued with building an interface that enables us to record voice and other sounds on paper visually. The next steps in the practical research concentrated on finding objects or phenomena that can be heard directly rather than using a mirror to pick up environmental sounds. The author discovered that it’s possible to hear the sound of insects moving their wings if their shadow is cast over the solar panel. This discovery was the basis for further research into finding methods of generating and amplifying sounds visually using vibrating strings, various rotating mechanisms, and flickering lights. The author developed instruments, created artworks, and did demonstrations, workshops, and performances that allowed visitors to participate in the process. Instruments were easy to use and allowed participants to understand their working principles in a way that allowed them to experiment and discover new sounds. The instruments and experiments demonstrate peculiarities of our perception – the flickering lights and the shadows of moving objects create the stroboscopic effect. The stroboscopic effect creates the illusion of the light being continuously on by visually slowing down the motion of the objects by dividing them into separate ‘frames’. The photoacoustic effect allows us to hear the connection between the flickering light and the slowed motion. Media art researchers such as Armin Medosch (1962–2017) and Douglas Kahn (b. 1951) and others have analysed artworks that use electricity, electromagnetic waves, and other forms of energy that allow visitors to experience their presence and working principles. Khan refers to this type of artwork as ‘experiential physics’, believing that institutionalised science operates in ways that are too disconnected from people’s everyday experiences and realities. Philosophers Kšištof Pomian (b. 1934) and Edward Pols (1919–2005) emphasise the role of experience and perception in gaining knowledge. Public workshops, performances, and demonstrations of the instruments and prototypes allow participants to experience the working principles of various immaterial phenomena (light, sound, electricity) and gain knowledge without using abstract models and theoretical explanations.
自2015年以来,文章的作者一直在她的艺术作品中研究光声效应,实验和开发各种原型和艺术品,让参观者体验这种效果并了解其一些原理。光声效应是利用光敏材料产生、记录或传输声音的过程。文章描述了作者的创作过程、方法和实践研究,并总结了艺术经验在产生知识和告知观众非物质能量和无形过程的工作原理方面的作用。这项研究的灵感来自亚历山大·格雷厄姆·贝尔(1847-1922)发现的光声效应。1880年,他发明了光电电话,也被称为太阳电话。这项发明遭到了公众的批评,但这种现象的本质激励了贝尔,所以他继续他的研究,相信它的潜力和可能的艺术用途。作者第一次用光记录声音的实验是用简单易行的材料和技术完成的。一个简单的麦克风由一面镜子和一个太阳能电池组成,可以利用阳光记录声音。镜子接收声音和环境声音,反射光被相应地调制。研究继续建立一个界面,使我们能够在纸上可视地记录语音和其他声音。实际研究的下一步集中在寻找可以直接听到的物体或现象,而不是使用镜子来拾取环境声音。作者发现,如果昆虫的影子投射在太阳能电池板上,就有可能听到昆虫移动翅膀的声音。这一发现为进一步研究利用振动弦、各种旋转机制和闪烁的灯光产生和放大声音的方法奠定了基础。作者开发了乐器,创作了艺术品,并做了示范,工作坊和表演,让游客参与到这个过程中来。乐器很容易使用,让参与者了解他们的工作原理,使他们能够实验和发现新的声音。仪器和实验证明了我们感知的特殊性——闪烁的光和移动物体的阴影产生频闪效应。频闪效应通过将物体分割成单独的“帧”,从而在视觉上减缓物体的运动,从而创造出光线持续亮起的错觉。光声效应使我们能够听到闪烁的光和缓慢的动作之间的联系。媒体艺术研究者如Armin Medosch(1962-2017)和Douglas Kahn(1951)等人分析了使用电、电磁波和其他形式的能量的艺术品,让游客体验它们的存在和工作原理。可汗将这种类型的艺术作品称为“体验物理学”,认为制度化的科学以与人们的日常经验和现实脱节的方式运作。哲学家Kšištof Pomian(生于1934年)和Edward Pols(1919-2005)强调经验和感知在获取知识中的作用。公共研讨会、表演和仪器和原型的演示让参与者体验各种非物质现象(光、声、电)的工作原理,并在不使用抽象模型和理论解释的情况下获得知识。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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