This Page is automatically generated based on what Facebook users are interested in, and not affiliated with or endorsed by anyone associated with the topic. [PDF] Gott Und Der Tropfende Wasserhahn PDF Books this is the book you are looking for, from the many other titlesof Gott Und Der Tropfende Wasserhahn. Gott und der tropfende Wasserhahn. Gedanken über Mensch und Kosmos. Read more · El Cerebro de Broca ; Reflexiones Sobre el Apasionante Mundo de la.

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Im Folgenden soll got neue Denken skizziert werden. Diese streng mechanistische Denkweise wurde erst im Ein Paradigmenwechsel setzte ein: Im Gegensatz zu unserem mechanistischen Weltbild sind nichtlineare Systeme in der Natur eher die Regel als die Ausnahme.

Ein besonderer Bereich der nichtlinearen Dynamik sind Musterbildungsprozesse der Natur, wie man sie u.

Die beschriebenen Musterbildungsprozesse sind wie kleinste zitternde Knoten in einem Netz ineinander verwobener Rhythmen und Zeitskalen, die die ihnen zu Grunde liegenden Entwicklungsgesetze immer wieder aufeinander anwenden.

Die Zeit der Natur ist eine zyklische, die bei jedem Durchlaufen einer Zeitschleife sich nuancenhaft der Umgebung anpasst.

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Werden diese einzelnen Ausschnitte aneinandergereiht, entsteht ein horizontal gestrecktes Bild. On the triptych of compositions drippingwindscapes and sono taxis. The triptych of sound-art compositions dripping, windscapes and sono taxis focuses on the acoustic phenomena of dripping water, wind sounds, and the songs of frogs and crickets. This essay aims to give an outline of this new thinking. Our everyday life is shaped by processes that we can explain intuitively on the basis of simple laws of causality: This physical worldview dates back to Sir Isaac Newton, whose laws of gravity provided an elegant description for the behaviour of bodies, making the world appear as a giant mechanism functioning like clockwork.

His findings were confirmed by a chance discovery in the s by the American meteorologist Edward Lorenz: This led to a paradigm shift: The mathematical definition of this term states that the behaviour of a system can be described by differential equations deterministicbut that it displays irregular, unpredictable temporal behaviour chaos. Contrary to our mechanistic worldview, in nature, non-linear systems are the norm rather than the exception.

Flowing liquids and turbulence, convection currents and circulation systems in the atmosphere, climate models, oscillating chemical reactions, biological ecosystems, neurological systems and social processes can all be explained in terms of non-linear dynamics.

One special field within non-linear dynamics is pattern-building processes in nature, as seen in corals, animal fur patterns or plant growth. These phenomena provide ideal samples for the study of non-linear systems, since a small number of variables are responsible for the formation of complex patterns via feedback effects and processes that amplify each other. The special property of these non-linear systems is that they generate a range of patterns each with its own identity, like a fingerprint, with no two patterns alike.

The huge variety of pigment patterns on the shells of tropical snails provide an outstanding model for this kind of pattern-building processes. They are created along the growth axis of the shell as a result of overlapping chemical reactions.

Each shell develops its own individual pattern, with each species of snail possessing its own formula which can gropfende described using differential equations and which allows it to be distinguished from other species cf.


Hans Meinhardt, Algorithmic beauty of sea shells. It dates back to investigations carried out by Robert Shaw and his colleagues at the University of California in Santa Cruz, who discovered chaotic behaviour in dripping taps at the transition from periodic dripping to a constant flow. With hott help of microphones and photoelectric beams, they measured the non-periodic behaviour of the water drops.

Telaara Dunwin – Leipzig, Germany ( books)

For the sound-art composition dripping, this test set-up was extended to include several additional drip openings per water source, creating a network of dense rhythms that influenced each other. By combining various resonating bodies under the dripping apparatus, it was possible to gain an acoustic image of these complex rhythmical patterns and render them in sound.

The sound-art composition entitled windscapes translates the ripple patterns on desert sand dunes into acoustic rhythm structures. According to Hiraku Nishimori and Noriyuki Ouchi from Ibaraki University in Japan, the formation of ripple marks and of the dunes themselves can be understood as a non-linear system and described in differential equations.

In this model, the parameters of wind, sand and gravity form a simple system where the smallest accumulation of sand grains triggers a self-amplifying effect resulting in a ripple mark, in whose wind shadow further ripples will automatically be formed.

The same principle applies for the formation of dunes: Grain of sand for grain of sand, the simple processes at work here create complex patterns of limitless variety at the macroscopic level.

In windscapes, these patterns were translated into acoustic information by deriving acoustic control signals from photographs of various sand ripple marks, which were then transferred to horizontally suspended sheets of paper with the help of contact loudspeakers. Astonishingly enough, the sand strewn on the sheets of paper immediately formed dune-like patterns and moved across the paper in the same way as wandering dunes.

Recordings of these sand movements formed the basis for the rhythmical composition parts of windscapes, allowing the formation of sand-ripples to be heard in a single grain of sand, so to speak. Although this kind of scientific study has yet to be carried out for the patterns of acoustic interaction among frogs and crickets, it is likely that similar non-linear processes are at work here too. Each species of frog and cricket has its own unique acoustic code, defined by the pitch and time structure of the call, primarily for reproductive purposes.

As soon as several individuals of a single species join to form a chorus or are forced to compete by limited habitat, certain collective phenomena occur that represent more than just the sum of their individual voices. The most frequent example of this is synchronization of individual calls, but more complex call patterns may also occur, for example when individual animals try to make their own calls heard in the pauses between the calls of nearby rivals.

In addition, attempts to gain a competitive advantage by outdoing each other in volume often results in the song of the chorus getting louder and louder until it stops abruptly, starting again from a lower volume. The extraordinarily dense soundscape of the jungle is treated as an acoustic organism, created above all by the competing species of grasshopper, cricket and frog in their struggle for acoustic niches.


The examples used in these three compositions show that in the larger context, processes taking place at the level of the smallest unit combine in fascinating ways to form collective phenomena.

Even the evolutionary origins of life on earth in general have been considered as the result of a gigantic process of self-organization of matter, in the course of which life gradually developed out of the primordial soup cf.

Gott Und Der Tropfende Wasserhahn by Sagan Carl | Book

Manfred Eigen, Molecular self-organization of matter and the evolution of biological macromolecules. Nature is a highly networked def characterized by an extremely complex interweaving of chaos and order. The pattern-building processes described above are like the tiniest oscillating nodes in a network of interlacing rhythms and time scales that repeatedly apply to each other the laws of development on which they are based.

Nature has no fixed unit of time such as those on which we have based our linear notion of time since the invention of mechanical clocks.

In nature, time is cyclical, subtly adapting itself to its surroundings with every new cycle.

Telaara Dunwin

Nature knows no identical processes, only similar ones, with each repetition marked by tiny changes and imperfections. This understanding of rhythm and time forms the shared basis for the sound-art compositions dripping, windscapes and sono taxis. Instead of following a time signature or fixed meter, the polyrhythmic structures of pattern-building processes consist of several pulses moving on a number of timelines that attract and wasserhanh each other as if under the influence of gravitational forces.

This style of editing was designed to follow the specific dynamics of non-linear processes by repeating passages from the polyrhythmic pattern over and over with a certain degree of fuzziness.

This also made it possible to achieve an organic interlocking of recordings made at different times. This editing technique involves a time window moving along a rhythmical pulse of the pattern, steadily shifting by a tiny amount with jnd cycle, subjecting the material to a sequence of rhythmical reinterpretations.

The shifting of the time window can be calculated from the tempo of a basic pulse, with the size of the shift always close to the fusion frequency of the human brain.

A suitable image to describe this technique would be cutting a vertical section out of several copies of a single picture, where the section removed shifts by a certain amount each time. If all the various excerpts are laid next to each other, they form a horizontally stretched version of the original picture. This is the result of the particular nature of the non-linear processes described above: The natural phenomena on which these pieces are based, and their interpretation via non-linear dynamics, exist beyond human efforts towards innovation.

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