Friday, February 11, 2011

Didgeridoo Musical Annotation

This is an idea I've been toying with for several years now, moreso since I began studying phonetics a few months ago. As of now, there does not exist any standard notation for the different noises on the didgeridoo. Lessons are taught informally through demonstration and the use of a handful of didgeridoo colloquialisms -toots, screams, "taka-taka", drone, bounce breath, etc. - that refer to specific sounds or articulations. Among didgeridoo players, these sounds are understood, and the colloquialisms serve just fine. However, that's because everyone has already made those noises before and can reliably recreate them. The "notation" for didgeridoo is really nothing more than lingo for those who are already in the know. It does not serve to help others understand how to make noises that they have not yet made.

Imagine telling someone how a word is spelled with no alphabet.

My idea is to create a standard system of didgeridoo articulations based upon the International Phonetic Alphabet. I think this is the perfect foundation for such a project, since many of the diagnostics that are defined by IPA are exactly the types of distinctions that are made between didgeridoo noise: voicing, aspiration, tone, place of articulation, to name a few. Interestingly, I learned a great deal of new noises on didgeridoo when I began studying phonetics! I would take a familiar articulation and change one aspect, such as the place of articulation, and produce a noticeably distinct sound. This is what led me to believe such a system was possible.

Even just thinking about such an endeavor shows me just how important a systems approach is to a project like this. While the IPA does a pretty good job of grouping sounds based upon their manner of articulation, I have a feeling that is one side of the chart I will need to revamp. It's true, there are noises that you can make on the didgeridoo employing the Trill, Plosive, and Fricative manners of articulation (among others), but these are relatively few and do not warrant the entire top half of the chart. Likely this will be replaced with a system that determines air pressure, based upon the manner of air exhaust (using the diaphragm, pharyngeal muscles, cheek muscles, tongue, etc). Other factors I will have to take into account are whether or not there is a continuous drone to a segment, or whether it is divided up into individual sounds. Indeed, there will be a good number of additional phonetic categories that apply to playing the didgeridoo but not necessarily to speech.


For those of you who are not familiar with the IPA, here is a link to a site that does a good job of explaining the different distinctions it makes, and how different sounds are categorized.

http://www.omniglot.com/writing/ipa.htm

Saturday, February 5, 2011

Size of a system as a factor.

Size of a system as a factor.

I’m writing this blog post from my friend’s farm out in Deadwood, Oregon, which, in case you were wondering, is in the middle of nowhere. The property is completely secluded, and runs off of its own solar electricity. Water is pumped from a well, and food comes from the gardens and animals on the farm. There is only a single, one-lane road that comes out here, and many of the other conventions of society are completely absent from the area. As a result, many of the issues faced by society are also absent. There is no anonymity, even between the neighbors which are further away than regular neighbors. Theft doesn’t happen, violence doesn’t make sense, and greed is obsolete. To me, it seems idyllic that people can live this way. But it isn’t so much the specific things that they do in order to be sustainable, but rather the small scale on which they operate that makes the farm so great.

This got me to thinking about how a system can operate just fine to a certain degree but when the scale of the system is increased greatly, it no longer operates efficiently. I then thought about how we create a whole slew of problems by operating with a national identity that is some 300 million people large as opposed to a realistic identity that reflects one’s current role in their lives. It’s really quite a simple concept, and we don’t even need to think about something as profound as society in order to realize it. Take agriculture, for example. If you’re growing tomatoes for you and your family, you probably will just grow them in soil as opposed to having a whole hydroponic system for a few plants. However, if you were growing tomatoes commercially, it would be a massive chore to switch out the thousands of pounds of soil that need to be moved. Also, it would take a great deal of land and would have to be grown outdoors, which limits the crop to its natural season. Therefore, one would opt to grow the tomatoes hydroponically on an industrial scale, as most places do. Even so, there are a lot of issues that come with commercial farming, and there is a significant loss of food quality and nutrient density when growing hydroponically. So, in short, it would be better if everyone grew their own tomatoes using the system that produces high quality food in a practical, low-cost, low-maintenance fashion.

In the same vein, it would be better if we replaced some of our massive systems that we depend on (grocery stores, gas stations, electricity, plumbing, etc.) with smaller, more sustainable systems. This will result in a higher level of security since there cannot be a central failure of the farming system if the farming system is divided across everyone’s individual gardens and farms.

Friday, January 28, 2011

The Inner-Workings of a Water System

Our first guest speaker got me thinking more and more about the invisible factors at play in an ecosystem, especially the cycle of water through an ecosystem. My awareness of water systems began when I was living at my grandma's house and we had visitors from the watershed council to look at features of the land that could be affecting water distribution, most notably invasive water-hogging weeds. There are a multitude of factors that need to be taken into consideration when examining a water system; invasive weeds are merely one issue that arises when trying to understand and control the flow of water in an ecosystem. Certainly one of the most important factors - and one of the most visible in Oregon - is the level of precipitation. However, what happens to the water after it falls is equally important, and substantially more difficult to understand.

I, myself am not very familiar with all of the issues surrounding the watershed in this area. However, I do know about some of the invasive weeds in this area. In my experience, the most common are tansy weed, canadian thistle, scotch broom, and more recently, false brome. Some of these look pretty innocuous but they actually divert a lot of the water from the rest of the ecosystem, which is a problem even in a state like Oregon. Here are some links with photos and information about a few invasive species in Oregon:

http://extension.oregonstate.edu/news/story.php?S_No=973&storyType=garde

http://www.oregon.gov/ODA/PLANT/WEEDS/profile_tansyragwort.shtml

http://www.oregon.gov/ODA/PLANT/WEEDS/profile_canadathistle.shtml

http://www.oregon.gov/ODA/PLANT/WEEDS/profile_scotchbroom.shtml


While expecting that humans can change the course of nature is ultimately futile, it is always good to spread knowledge of things like invasive species so that we might see some improvement in the ecosystem if awareness of the issue spreads to enough people.

Friday, January 21, 2011

Division of Labor

I've recently started reading Daniel Quinn's The Story of B again after taking a break from it for several months. For those of you who aren't familiar with him, Daniel Quinn is a modern-day philosopher/writer who tells the human story with a neat anthropological twist and manages to put everything right into perspective. One of the most salient themes in his books -which all lend to the same philosophy, though in different ways - is the point at which humans stopped being hunter-gatherers and began sedentary communities. He says that this was the point at which society began, because it was the point at which humans moved away from a dynamic hunter-gathering lifestyle, and towards a societal lifestyle in which everyone has one specific job that they always do in order to make society work more efficiently.

This is what Quinn calls "division of labor", which is exactly what it sounds like: a group of humans dividing up jobs on an individual basis. For the first time in history, humans were supposed to do one thing while depending on others to do their specific job. Human society is, undoubtedly, one of the most complex hierarchical systems the world has ever seen, and I find it interesting to see not only how it works, but just how it is that such a system came together in the way it did. Daniel Quinn gives a wonderful historical account of humanity from our hunter-gathering days all the way up to modern-day metropolitan societies. Like many fabricated systems, modern society is designed for maximum profit/output, and not necessarily to be sustainable. Quinn argues that this is due to the fact that by dividing up labor we are essentially making ourselves inept at all but one (or a few) things and making the system more fragile as a whole.

If you're interested in reading some of his books, I would highly recommend Ishmael. It's an easy read and is in my top three favorite books of all time.

Saturday, January 15, 2011

Alternative Number Systems

This past Thanksgiving, my uncle was visiting from Alaska and we had a long conversation about how a computer works. He is a really, really smart person and used to hand-wrap copper-coiled RAM back when that was the only form of memory. Anyway, he really understands computers, and since I really don't understand how the lower levels of hierarchical computer systems actually function. Most people actually have no idea how a computer works; what goes on inside is complete magic. I asked him to teach me binary and it was a very eye-opening look at just how a computer processes things. Binary's really just a way of expressing numbers that drastically cuts down on the number of characters used, since it only employs two characters and most numbers can be expressed with only four digits. It is then possible to program a computer to recognize certain strings of these number values and interpret them as letter values, which then allows one to create words and therefore programming languages, which then allows one to create operating systems, for which someone can write a program, and so on and so on. It is fascinating to me how one of the most important systems in our daily lives rests on a foundation of two numbers. This is the perfect example of a hierarchical systems: a computer is just a system composed of smaller systems composed of even smaller systems which are ultimately composed of binary code.

Binary works by using four columns. The first on the right represents the "1" column, the second one to the left represents "2", the third over represents "4", and so on; the columns are twice the value of the previous column. In these four columns, you can either insert a 0 or a 1, depending on whether or not you want to express the number represented by that column.

Here's an example:

I want to express the number 7 in binary. I have to get the values of the columns to add up to seven, which would require me to add 1+2+4 since those are the only values represented by the columns that will add up to seven.

0111

(0x8)+(1x4)+(1x2)+(1x1)=7

Here's a pretty good article that explains how it works in more detail. It also has a brief explanation of Hexadecimal, which is another alternative system of expressing numbers that employs letters as well. It is most commonly used for setting color values for web pages, since these colors are expressed with Hexadecimal.

http://www.swansontec.com/binary.html

Sunday, January 9, 2011

Critical Questions

Here are the questions that came up while I was reading chapter 1:

Critical Questions:

Should we understand the scope of interconnected systems as a large, infinite system, or is there a massive, superordinate system that encompasses it all?

Is the focus of studying systems to further our understanding of the world or for more practical purposes such as improving the efficiency of systems?

Is there a system to everything? In other words, is all chaos organized in some way and do chaos and disorder even really exist?

How do we go about expressing systems that are so large and complex that diagrams will actually confound, not help our understanding of the system?

Is it always better to perceive things as parts of a larger system or are there circumstances where it is more practical, useful, or easier to perceive something on a more basic level?

First Blog Entry

Hello Everyone!

In thinking about seeing large systems as interconnected parts functioning together or seeing smaller parts as a larger system, I thought back to the Portuguese Man of War - a type of jellyfish native to Australia and Hawaii though found in many different parts of the world. The Man of War is not a single organism, but is a colony of smaller organisms called zooids which all work together as one unit, which appears like a single animal to us. Here is the wikipedia article; there's a lot of great information on it about this fascinating creature. I also recommend following the the link to the page on zooids and reading more about colonial organisms in nature.

http://en.wikipedia.org/wiki/Portuguese_Man_o%27_War

See you all on Monday!

-J.J.