CONSCIOUSNESS
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1. Philosophy 57<br />
the examples, generates a procedure to solve the arithmetic / mathematical problem, executes<br />
the procedure to solve new examples of the problem, and keeps execution results. An instance<br />
sequence describing its experience and capability consists of words of a question ‘can you do<br />
division?’ followed by an answer ‘yes, I can’ or ‘no, I cannot’ while the human confirms the<br />
program has acquired how to divide an integer by another or has not. Given the sequences<br />
of the words, the program generates a procedure to make a positive or a negative answer to a<br />
question ‘can you do abc?’ depending on its experiences on the problem abc. Now, the human<br />
gives the program examples that cover a part of a problem, for instance ‘factorize 4’, ‘factorize<br />
8’ and ‘factorize 16’. Then the program generates a procedure of factorizing an integer of a<br />
power of 2, and uses it to factorize an integer, 1024 say. In this situation, the program makes a<br />
positive answer to a question ‘can you do prime factorization?’ because the program has used<br />
the procedure to do prime factorization and has no experiences of failing prime factorization<br />
although the program is not able to factorize 27. The program has made a right answer at<br />
that moment, but it turns out to be self-satisfied if the program finds it fails to ‘factorize 27’.<br />
A view of our program consists in the procedures that the program has generated. One kind<br />
of the procedures describes how to solve arithmetic / mathematical problems, and the other<br />
kind describes how to answer questions about its experiences and / or capabilities of solving<br />
the problems. Thus the view outputs a description of its experiences and capabilities, and is<br />
subjective because the human has not programmed the view but the program has developed it<br />
and is going to change it because the program forms and keeps modifying the procedures. P7<br />
36 Knowledge Argument on the Basis of Our Computer Program Kenzo Iwama,<br />
Machiko Fujiwara (Engicom, Tokyo, Japan)<br />
This paper argues that a pure phenomenal concept (Chalmers, 2004) can be explained<br />
by a seed of a procedure that our program generates when the program finds an inconsistency<br />
among currently active procedures. A recognitional concept (Loar, 1990; Carruthers<br />
2000; Tye 2000) is formed later to index the pure phenomenal concept. Firstly the paper<br />
explains a computer program that acquires how to solve arithmetic / mathematical problems<br />
by generating procedures from examples and executing the procedures to solve new examples<br />
of the problems. Before getting the examples, the program does not have the procedures to<br />
solve the problems. If the program has got examples that cover only a part of the problem,<br />
the program fails to execute the procedure on a new example that is out of the coverage.<br />
The program always forms a seed of a procedure when the program finds an inconsistency<br />
among currently active procedures, and a failure is one of the inconsistencies. On the other<br />
hand, let the program have knowledge of how the program runs. Secondly the paper argues<br />
that procedures generated are the self-model of a program, and it focuses on the Knowledge<br />
Argument. Mary’s knowledge corresponds to the knowledge about the program, and Mary’s<br />
color experience corresponds to a failure of executing its procedure. A combination of examples<br />
and a new example of a mathematical problem determines if a failure occurs, and the<br />
new example makes the program experience the failure of executing a procedure to the end.<br />
The failure is characterized by the combination of the examples and the new example of the<br />
problem. The program forms a seed of another procedure to represent the failure because the<br />
program cannot have the procedure to represent it in advance. A seed thus formed is “a pure<br />
phenomenal concept”, and is “isolated” from other concepts (e.g., Carruthers, 2007). The seed<br />
will be indexed within the self-model (or has its relation to a set of procedures already generated)<br />
only after the self-model with the seed reforms itself because the model has not included<br />
characteristics of the seed to form itself with indexes in advance. (Mary’s self-model has not<br />
included wavelength of red yet.) The reformation makes a recognitional concept that indexes<br />
to the pure phenomenal concept and the concept can be applied when another failure occurs.<br />
Knowledge about our program is able to tell that the program is going to fail, to form a seed<br />
of a procedure to represent the failure after the program gets examples of a problem and a new<br />
example, and to tell how the program modifies the self-model to include characteristics of the<br />
failure. (Mary’s knowledge can tell how the self-model is going to integrate wavelength of red<br />
into itself after getting the wavelength of red.) P7