WO1998033306A1 - Method of using multisignal single unit and plural unit - Google Patents

Abstract

A multisignal single unit is realized in which a signal is expressed not only by the presence/absence of a pulse but also by multiple signals and each subsignal has a meaning, providing many meanings at a time more than what square pulse of a conventional signal single unit has. When a plurality of multisignal single units are used together as a multisignal multiple unit, the multisignal multiple unit can contribute to the improvement of survival technologies in the cultural field where a larger quantity of characters, sentences, calculations, codes, etc., are handled and in the computer hardware field where simplification of calculation is expected and, original components and circuits are to be developed. By a method employing the input of the signal of the invention, the use of the main frame memory of a microcomputer, a personal computer, etc. can be reduced as much as possible. By using, instead of the binary notation which is too minute to be used for calculation, encoding, etc., any of the ternary to decimal notations or any other notation is used for the purpose of solving complicated problems of a large variety and large quantity of data in future. A plurality of kinds of signals are generated in accordance with the level, width, frequency, and waveform of voltage, current value, etc., and a plurality of levels are prepared in order to sense signals and to recognize the signals in accordance with the outputs of the levels to obtain a multisignal single unit. A plurality of the multisignal single units are used for multiplication/division, and numerals, characters, etc. are expressed to obtain a multisignal multiple unit. The method of using the multisignal multiple unit is the key point of solving a problem. The multisignal multiple unit can be applied to computers, personal computers, information apparatuses, measuring instruments, design of electric machines and buildings, etc., household appliances, signals, charge paying/receiving machines, medical equipment, etc.

Description

 Specification

 How to use single and multiple units for multi-signal

Technical field

 According to the present invention, not only the presence / absence of a rectangular wave pulse but also the signal can be expressed by being divided into a large number of signals, and each of the signals has a meaning. This makes it possible to create multi-signal units that have more meanings at the same time than square-wave pulses.

The use of multi-signal simplexes in multi-signal multiple bodies (blocks) makes it easier to use more and more characters and text, as well as cultures such as computation and encryption, and in the field of computer hardware, simplification and unique calculation methods. In the world of parts and circuits, it is thought that the technology to survive in the future will be improved.

Background art

The signal of the prior art is represented by the presence or absence of a rectangular pulse or the like. Calculations based on the presence or absence of this signal are currently in binary only. Force Been to the circuit of this binary is 1955 around to pretend in phase triode a sine wave-flop, then also there is a 1960-year period of the transistor also of the _c The current I c In the Showa era of 1945, we went only by the same method. And even now I only use the same binary method.

Previously, it was expressed by the presence or absence of a hole in the selection tape, and the same was applied to the magnetic tape, so only the binary system could be used. However, this binary system is too simple and fine, and when the number is large or complicated, it has become difficult to use many simple circuits to meet the purpose.

Also, mass production does not make it cheaper than a certain level.

Therefore, it is not the same as in the era of vacuum tubes and transistors, but it still requires space, so it will not be able to meet the demands of the future for more complex and complicated requirements, and it will not be possible to expect technological progress. Here, the multi-signal unit or the multi-signal unit of the present invention is not a mechanical component but a circuit only, so that it can be well developed in a small space by the Ic technology. The problem to be solved by the invention is as follows. Instead of using the memory of the microcomputer circuit to move 0 and 1 one by one, the present invention should be performed before the microcomputer circuit. Thinking that there is, input method is too small to use the memory of the main body as much as possible and it is too fine to do calculations, encryption, etc. This is a problem to be solved by using the above method with multiple signals, using 0 as a signal that is inconceivable as a signal.

For this purpose, a circuit using the present invention is necessary, but the technology at present is progressing and developing at a great speed. In the current circuit technology will be as circuit met even in the order What kind of purpose can make a variety of uses for the circuit of the present invention is you can make a case-by-case basis. I think that the method of the present invention is more solid considering the technology for a large number of complex and diverse futures.

The means for solving the problem will be described.

An object of the present invention is to make it possible to first express a signal in a large number of parts, and to make the signal have many meanings, except for the drawbacks of the conventional method. In addition, the above-mentioned multi-signal unit can be put together to form a multi-signal unit (block) for a large amount of characters and sentences, culture for calculation and encryption, and for computer hardware, to simplify calculation methods. It is intended to be usable. Also, when using a personal computer, etc., minimize the use of memory as much as possible, and use other memories in various ways. The purpose of this method is to make it simpler and to use it for design drawings and special memories.

 Disclosure of the invention

The present invention has multiple signal types (types in which values and shapes of signal voltage height, width, frequency, waveform, current amount, etc. are divided into two or more), and detects and outputs each signal. The present binary method of 0 and 1 is changed to a method of realizing the present complex phenomena by changing the current binary system of 0 and 1 to a multi-signal method without a signal of 0. To use multiple signals for multiple signals BRIEF DESCRIPTION OF THE FIGURES

 Fig. 1 compares and explains the binary method and the multi-signal method as one figure and discriminates and confirms the signal by using the output of one sensor (however, this level method in the present invention). FIG.

FIG. 2 is a diagram showing the relationship between a signal corresponding to one example width for multiple signals and its output. FIG. 3 shows an example of signals of the three-signal method, which is an example of the multi-signal method for multiple signals.

FIG. 4 is a display example of a multi-signal multi-signal multi-signal method in a 10-ary system.

FIG. 5 is an example of a composite diagram of a multi-signal multi-signal 10-signal method and a 3-signal method in a three-dimensional diagram.

FIG. 6 is a plan view of a three-dimensional object using a plurality of multi-signal bodies.

FIG. 7 is a diagram used for a biological miracle of a plan view of a three-dimensional body of a multi-signal body.

 Embodiments of the present invention will be described with reference to the drawings using actual examples. Figure 1 shows four types of signals for a single signal. (A) shows the relationship between the level L of the height and the width of the signal by the dotted lines of signals 0 and 1 and the dotted lines of signals 2 and 3 with respect to the width. However, 0 and 1 are the conventional binary methods, and 1, 2, and 3 are the three-signal methods of the multi-signal method. (B) describes each level L output of (a). 0 has no output for LI, L2, L3, 1 has only L1 output, nothing else, 2 has LI L2 output, has no L3, and 3 has LI L2 L3 output.

(c) is the conventional relationship between the rising and falling pulses of level L1.

(d) shows the relationship between the rising and falling pulses of the dotted line with different widths of level L1, and the relationship between the rising and falling of the width chip.

 As shown in Fig. 1, there are not only four types of single signal for multi-signal, but they appear later, but there are cases where the signal is more than -10.

 In each case, the circuit is also different in various ways, and a circuit suitable for that needs to be considered, and unless it is converted to IC, it must be done.

In addition to this, there are various ways to use the single unit for multiple signals. Let's stop with two application methods.

Figure 2 is an example of four types of signals. In this case, only the falling is considered, and the width of the four numbers 1, 2, 3, and 4 in (a) is sensed by the dotted line level L 1.

However, in this case, the height is not relevant, so a step is shown for easy understanding.

Also, the output appears between the vertical pulses like the output of level L1 in (b). For 1, it is the narrowest at the top.

Similarly, 4 is represented by the widest point, ie, the widest point in the bottom.

Fig. 3 shows an example of a multi-signal multiple body (block).

 (a) is a multi-signal height signal obtained by dividing a single multi-signal into F blocks. However, 0 is inserted for comparison with the binary system, but it is not actually needed.

 (b) shows how (a) is used for actual numbers.

All the signals S n excluding zero are 3 signals and n is 3. The number of all levels L n for sensing all signals is LI, L2, L3 with 3 of n.

Since the number includes 0, the number including all signals and zero (n + 1) is expressed as 4 (= 3 + 1).

Figure 1 (a) shows the first single block F1 and the m-th Fm in the signals in the predetermined order 0, 1, 2, 3,.

 (b) explains how to represent the figures in (a) using actual figures. From block F 1 F 2 F 3 to F m, calculate 4 to the (m−1) power for each block and add 0, 1, 2… to m.

 Multiply this number by a number from 1 to n.

 4 for F 1 is 1. Then, l x l is set to 1 and similarly I X 2 = 2, 1 x 3 = 3.

Similarly for F 2, 4 ¹ is 4 and 4 x 1 = 4, 4 x 2 = 8, 4 x 3 = 1 2, and F 3 is 4 ² is 16 x 1 = 16 and 16 x 2 = 3 2, 16 x 3 = 4 8, From above, F 1 is 1, 2, 3, F 2 is 4, 8, 1 2, F 3 is 16, 3 2, 4 8,

Character Counting Block 1 Block F 2 Block

b 1 丄

c o o

 Δ

 o

d o O

 丄 ten

e 4 4

 f 5 丄 + 4

 g 6 2 + 4

h 7 3 + 4

 i 8 8

 j 9 1 + 8

 k 1 u z + 8

 1 o

 1 1 o 10 8

 n 1 1 2 m 1 6 1 + 1 2 o o

 1 4 z + 1 2

 P 1 5 o 1 2 q 1 b 1 6 r 1 ί 1 + 16 s 丄 8 1 6 t 1 9 3 + 1 6 u 2 0 4 + 1 6

V 2 1 1 + 4 + 1 6 w 2 2 + 2 + 4 + 1 6

X 2 3 3 + 4 + 1 6 y 2 4 8 + 1 6 z 25 1 + 8 + 16 or more can be obtained in the same way, but when adding, it can be obtained by various numbers like 3 above. However, the numbers to be added should be prioritized starting from the highest number.

Conversely, if you do it in ascending order, you will not be able to achieve your purpose unless you add a very large number of numbers, and the numbers in the middle will also be less, although it is possible.

Fig. 4 (a) is the decimal system of our arithmetic. This can be represented by about 50,000 types with three singles for multiple signals.

In addition, with a single unit for multiple signals, it is easy to make 10 ', 10 Λ 10 \ ----. Figure 5 (a) shows each signal of a single signal for multiple signals. 1 One of the 1 signals is connected to the 3 signals of XYZ.

 (b) is used to select XYZ.

 (a) and (b) form a multiple signal multiple body, which can be represented by one multiple signal multiple body.

(A) in Fig. 6 is a single signal for multiple signals. Among them, 0 to 9 are Da'tum only and have priority, and are LX, LY, and LZ. 1 is LZ, 6 is LY, 4 is LX.

 (b) is the magnification expressed in width. And L X, and are multiplied by 丄. In the above (a), + and + represent the continuation of the coordinates next to LX, LY and LZ. Fig. 7 shows the collection of 12 single-signal multi-signal singles and one multi-signal multiple body. Then, the picture of Mt. Fuji and clouds was painted on the multi-signal body. Fig. 8 is drawn as a brain-like biotechnology with the moving points connected by arrows to the multiple signals for multiple signals in Fig. 7.

 In addition to this, various expressions can be made by various uses.

 Industrial applicability

 The present invention employs the method as described above, and has the following effects.

The multi-signal unit of the present invention is a conventional I c flip-flop and its surrounding circuit. It is almost the same as the binary space in.

Since there are many signals and each signal has a meaning, you can express very many expressions.

The multi-signal multiple body of the present invention has a much larger amount of characters and texts than a single body, culture of calculation and encryption, and simplification of calculation method and expression of design technology in the field of personal computer hardware, and biotechnology. It is effective for application to

At present, the number of fields in which products are developed abroad in Japan is decreasing, but the development and improvement of original components and circuits in this new field is being pursued, and Japan and other countries will also have an effect in a bright era.

Industrial application fields of the present invention are very wide-ranging uses such as design of computers, personal computers, information equipment, measuring equipment, electromechanical architecture, home appliances, traffic lights, payment machines, medical equipment, educational equipment, etc. I can do it.

Claims

The scope of the claims  1. Multiple signal sensing levels (L, L, Lx ~ z, L, u „), LL1 _{; lum>} ) is used as the type of all signals among multiple signals based on the sensing factors (signal height, width, frequency, waveform, current amount, etc.) of various signals. How to use a multi-signal unit by arranging it so that it can be checked, and when a signal with multiple meanings is input, discriminate the signal and output it 2. How to use multiple signals for multiple signals by collecting the above single signals for multiple signals and obtaining numerical values, characters, signs, etc. based on the signals obtained by the multiplication and division method