WO2011044722A1

WO2011044722A1 - Unit cooperative processing apparatus, parallel cooperative processing apparatus and information processing methods thereof

Info

Publication number: WO2011044722A1
Application number: PCT/CN2009/074416
Authority: WO
Inventors: 蔡光贤
Original assignee: Cai Guangxian
Priority date: 2009-10-13
Filing date: 2009-10-13
Publication date: 2011-04-21
Also published as: CN102576316A; CN102576316B

Abstract

The present invention discloses a unit cooperative processing apparatus, a parallel cooperative processing apparatus and information processing methods thereof, wherein said unit cooperative processing apparatus includes: a function part located in the outermost layer of the unit cooperative processing apparatus; a private circuit with a first storage firmware, a common circuit used as data transmission bus; an interface part connected to the common circuit; an external memory connected to the common circuit, with virtual machine files and a virtual machine configuration table stored therein; a firmware memory connected to the common circuit, with a micro operation system stored and a standardized identifiable code embedded therein; a control part including a CPU and a parallel coprocessor for coordinating the work of the CPU. The present invention can automatically switch a terminal to different function mode states according to the various changes of hardware state. Based on the shape correspondences between numbers and characters, it is convenient to input, store, display and search characters of various countries by simply operating numbers.

Description

Description unit unit cooperative processing device and parallel cooperative processing device and information processing method thereof

The present invention relates to the field of computers, and in particular, to a unit cooperative processing device and a parallel cooperative processing device based on virtualization technology and an information processing method thereof. Background technique

At present, the increasing speed of computer processors and the continuous development of hardware-level virtualization technologies provide the possibility of parallel system computing, from parallel computing to grid computing to today's cloud computing. Parallel Computing systems include: Symmetric Multi-Processor (SMP), Distributed Shared Storage Processing System, Massively Parallel Computer System (MPP), Cluster System, Special Model Grid Computing. Based on this, cloud computing has been developed, and cloud computing has gradually evolved into a mainstream computing model to replace the trend of centralized large computers. In parallel computing, the node's computational processing power and communication exchange data are keyed using parallel algorithm mathematical models, message passing programming interface (MPI) techniques, and parallel programming methods.

At present, various IT giants have their own cloud computing models, and also launched commercial products such as Amazon. The performance of the microprocessor is not the same as before. The processing speed of each user terminal is also constantly improved. The virtualization technology is also mature. The user terminal can be applied to consumer electronic products and can be used for parallel collaboration. The unit-plane intelligent terminal that handles the calculation of raindrops for cluster computing provides a technical basis.

The processing speed of existing personal computer processors is increasing, and CPUs are moving from single-core to dual-core, multi-core processors, and embedding virtualization technology into the hardware layer. In this way, although the processing power of the personal computer is improved, since the personal computer is basically used for simple word processing, Internet access, multimedia, games and other entertainment activities, the ^ 艮艮 is often in a state of vacancy, adding virtual technology Personal parallel computers can fully exploit the computing power of personal computers.

With the development of economy and technology, the world is becoming more and more flat. After globalization, the information exchange between countries is closer and more frequent. The demand for computing and collaborative processing is increasing. It is a smart terminal that is more fast communication and collaborative computing operation and convenient to switch to different functional modes and a convenient and convenient text information processing method. Summary of the invention

The present invention has been made to solve the above problems, and an object thereof is to provide a unit cooperative processing apparatus capable of conveniently switching to different functional mode states based on different changes in hardware states based on a virtual technology, and a parallel configuration by the unit cooperative processing apparatus. Collaborative processing device and text information processing method thereof.

In order to achieve the above object, a unit collaborative processing apparatus according to the present invention includes: a functional unit disposed at an outermost layer of the unit cooperative processing apparatus and arranged with a functional interface for performing a human-machine interaction operation; having a first storage a private circuit of the firmware, connected to the function portion and having a driver corresponding to the function portion stored in the storage firmware, and generating a corresponding signal according to the operation of the function portion; the shared circuit a data transmission bus for internal and external data transmission of the unit co-processing device; an interface portion connected to the common circuit for providing a connection interface for the unit co-processing device; an external memory, The shared circuit is connected and internally stores a virtual machine file and a virtual machine configuration table; a memory is connected to the shared circuit for running a virtual machine; and a firmware memory is connected to the shared circuit and embedded with the unit cooperative processing device Standardized identifiable code and stored with a micro operating system, the micro operating system provides hard And a recognition and generation processing interface for providing text and images; the control unit includes at least one CPU, a ternary parallel cooperative processor for coordinating the work of the CPU, and at least one corresponding to the at least one CPU a dual primary cache, a dual secondary cache coupled to the at least one dual primary cache and coupled to the parallel coprocessor, coupled to the parallel coprocessor to connect the parallel coprocessor a parallel cooperative cache to the shared circuit, wherein the parallel cooperative processor cooperatively operates the at least one CPU to pair binary through the dual secondary cache and the at least one dual primary cache Interchanging with ternary data, and the control unit reads the operating system and the standardized identifiable code into the memory of the unit co-processing device, and divides the memory into pages. Run a virtual machine on each page of the memory layer based on the virtual machine file.

The parallel cooperative processor connects the at least one dual primary cache and the dual secondary cache to a closed dual string buffer by controlling a switch, wherein the parallel cooperative processor is from the dual string buffer Each string buffer selects one binary number each time, and converts the selected 2-bit binary number into a 1-digit ternary number.

The parallel cooperative processor controls the at least one dual master cache and the control by controlling a switch The dual-cache connection is a closed single-string buffer. At this time, the parallel cooperative processor selects two adjacent binary numbers from the single-string buffer each time, and converts the selected 2-bit binary number. It is a 1-digit ternary number.

The parallel cooperative processor uses an optoelectronic chip that processes and transmits data by conversion between an electrical signal and an optical signal.

A character engine is built in the micro operating system, and the character engine generates and displays text symbols through the optoelectronic chip.

The parallel synergistic processor incorporates a gravity sensing device for sensing the position of the unit co-processing device.

The unit collaborative processing device further includes: a function expansion unit, independent of the unit cooperative processing device and configured to perform a human-machine interaction operation; and an inheritable private circuit having a second storage firmware, connected to the function expansion unit A driver corresponding to the function expansion unit is stored in the second storage firmware, and a corresponding signal is generated according to an operation on the function expansion unit. And the function extension portion and the inheritable private circuit are connected as a whole to the interface portion.

The virtual machine file includes a virtual machine operating system file, a virtual machine application file, and a virtual machine data file, wherein the virtual machine application file is embedded with a software license agreement and a license number in a standardized unified format.

The unit cooperative processing device as described above includes: a central layer located at a central portion and provided with the firmware memory, the external memory, the memory, the control unit, the shared circuit, and the interface unit; An upper inner surface of the central layer and an upper inner layer of the private circuit; an upper outer layer disposed on an upper surface of the upper inner layer and disposed with the functional portion; disposed on a lower surface of the central layer And providing a lower inner layer of the private circuit; a lower outer layer disposed on a lower surface of the lower inner layer and disposed with the functional portion.

The function portion is a keyboard button or a touch screen.

The unit co-processing device has a rectangular shape, and the interface portion includes a horizontal connection interface disposed on four sides of the unit co-processing device and a vertical connection interface disposed on four corners of the unit co-processing device. .

A magnet is embedded in each of the horizontal connection interface and the vertical connection interface.

In order to achieve the above object, a parallel cooperative processing apparatus according to the present invention is constructed by at least one unit cooperative processing apparatus as described above through interconnection of interfaces between each other, and according to at least one unit, the connection state of the apparatus is coordinated and Position and the standardized identifiable code Determining the mode in which the parallel collaborative processing device is currently located.

The parallel cooperative processing device as described above connects the interface portions of the different unit cooperative processing devices through the connection members.

The connecting member includes a bidirectional connecting member and a unidirectional connecting member, wherein the bidirectional connecting member is composed of a connecting interface portion at both ends and an intermediate connecting functional portion, the unidirectional connecting member being connected to the interface portion at one end and the other end The connection function is composed.

The parallel cooperative processing device as described above connects two or more unit cooperative processing devices by a magic board binding method, and the two or more unit cooperative processing devices change the connection and body position of the interface portion between each other in the bound state.

The parallel cooperative processing device as described above connects the interface portions of the different unit cooperative processing devices by the magnets embedded in the interface portion.

In order to achieve the above object, a working method of a parallel cooperative processing apparatus according to the present invention includes the following steps: Each unit cooperative processing apparatus reads a respective micro operating system and the standardized identifiable code into respective memories. Each unit cooperative processing device separately performs hardware detection through the micro operating system, and simultaneously senses respective body positions; according to the hardware detection result, each unit cooperative processing device exchanges the respective standardized identifiable codes between each other through a predetermined protocol, and Updating the accepted standardized identifiable code into its own allocation table; each unit cooperating processing device merges the respective micro operating systems into an integrated environment system in a point-to-point connection manner; the environmental system detects the hardware And comparing the sensed body position and the updated standardized identifiable code with the virtual machine configuration table, and determining, according to the comparison result, a mode in which the parallel collaborative processing device is currently located; according to the determination result of the mode Virtual system corresponding to the operation of the environment File properties corresponding to activated virtual machine.

In the above working method, the hardware operating system of each unit cooperative processing device performs hardware detection separately by: reading an interface of a driver corresponding to each functional unit and detecting an interface portion participating in the connection to update the interface table.

In the above working method, the operating systems of the respective unit cooperative processing apparatuses are merged into an integrated environmental system by a flat network structure.

In the above working method, the unit cooperative processing apparatus stores and delivers information in a YML format, wherein the YML format is a format in which three-dimensional data is marked with one-dimensional string data based on an XML format.

The YML format includes an in-line and in-line representation, wherein The external representation is: YML=<dimensional data 3 Q>

<2D data X2>—Dimensional data 1 Z

</ 2D data X2>

<\3D Data 3Q>

The inline representation is: YML=<: dimension data X2>

One-dimensional data 1Z<dimensional data 3Q\>

</ 2D data X2>

In order to achieve the above object, a word processing method of a parallel cooperative processing apparatus according to the present invention includes the following steps: inputting a number corresponding to a character to be input; generating a hardware word encoding instruction according to the input number; built in a micro operating system The character engine in the middle generates text by the parallel coprocessor according to the hardware word encoding instruction.

The parallel cooperative processor includes a light emitting unit, an image converting unit, and a light receiving unit, and the hardware word encoding command includes character information, radical information, and radical region information.

In the above word processing method, the process of generating a text by a parallel cooperative processor includes the following steps: the character engine displays a corresponding character to the light emitting unit according to the character information; The meta-engine converts the character displayed on the light-emitting portion into a predetermined area by the image conversion unit based on the radical information and the radical region information, and irradiates the predetermined portion of the photosensitive portion; Text is generated by superimposing all the roots of the predetermined area.

The image conversion unit converts the character into a radical by means of rotation, scaling, and mirror conversion.

Moreover, the generated text is stored in the external memory in a digital form corresponding to the digital form of the text.

Further, when the text information is inquired by the keyword, the digital article stored in the external memory is searched based on the number corresponding to the keyword, and the matched digital article is displayed in text form.

In the above word processing method, when the text is English, the correspondence between numbers and English characters is: Number 0 1 2 3 4 5 6 7 8 9 Letter DO IJT NQZ EMW AKR SX CGU LV BH FPY If the parallel cooperative processing device enters the English input mode, the text input is performed by using the * key and the # key on the function part. When a certain number is pressed, the default is to input the first letter corresponding to the number; pressing a certain number Press the * button again, the default is to enter the second letter corresponding to the number; press a number and then press the # key, the default is to enter the third letter corresponding to the number.

If the parallel cooperative processing device enters the English input mode, the text input is performed by continuously pressing the numeric keys. When pressing a certain number, the default is to input the first letter corresponding to the number; when pressing a certain number twice consecutively By default, the second letter corresponding to the number is entered; when a number is pressed three times in succession, the default is to enter the third letter corresponding to the number.

Further, when an English phrase is input, the corresponding numeric key is sequentially pressed in the order of the characters constituting the English phrase based on the digital vocabulary corresponding to the English stored in advance.

In the above word processing method, when the text is Korean, the correspondence between numbers and Korean characters is:

Where the symbol " " indicates the number 6 is used to rotate the character 90 degrees clockwise. The symbol "0" indicates that the number 9 is used to rotate the character 90° counterclockwise, and the symbol "represents the number 8 is used to mirror the character symmetrically.

If the parallel cooperative processing device enters the Korean input mode, the consonants, vowels, consonants, vowels, and radio are sequentially input by pressing the numeric keys.

In the above word processing method, when the unit collaborative processing device has a numeric keypad, the layout is:

In order to achieve the above object, a software testing method for a unit collaborative processing device according to the present invention includes the following steps:: a test virtual machine equipped with the tested software and a test with the test software installed by the interface unit of the unit collaborative processing device The virtual machine is copied to the unit collaborative processing device; the micro operating system associates and runs the tested virtual machine and the test virtual machine; and the test software on the test virtual machine invokes the character reverse operation interface provided by the micro operating system Identifying and separating image information of an operating state in the tested software from a display memory of the tested virtual machine of the unit collaborative processing device; associating between the test virtual machine and the tested virtual machine Interface to operate the tested software, and create a virtual object and a virtual object set corresponding to the entity object of the tested software running on the tested virtual machine on the test virtual machine; The character reverse operation interface provided by the micro operating system identifies the text information and the virtual machine in the entity object Dual display memory area, so that by various permutations and combinations of the recording operation by the test software; the software test in the test results file to confirm the test results for determining and storing.

In order to achieve the above object, a three-dimensional image display method of a unit cooperative processing apparatus according to the present invention, wherein the unit cooperative processing apparatus includes two CPUs and two dual main caches corresponding to the two CPUs, The method includes the following steps: the operating system of the unit collaborative processing device provides an image for generating a three-dimensional image to the three-dimensional display virtual machine according to the three-dimensional image processing interface; and the three-dimensional display virtual machine performs three-dimensional image on the image for generating the three-dimensional image After the effect processing, two two-dimensional virtual images are generated, and two two-dimensional virtual image data corresponding to two two-dimensional virtual images are respectively stored on two two-dimensional virtual display memories of two two-dimensional virtual screens, according to which Parallel cooperative processor performs cooperative operation on two CPUs, each CPU separately processes one of the two-dimensional virtual image data; and reads the two two-dimensional virtual image data in the two two-dimensional virtual display memory respectively To the two dual master caches, and by comparison between the two dual master caches And a bit operation to generate three-dimensional virtual image data in the dual-sub cache of the unit co-processing device; the micro-operating system reads the three-dimensional virtual image data into a three-dimensional virtual display memory corresponding to the three-dimensional virtual screen in the three-dimensional A three-dimensional virtual image is generated on the virtual screen; the micro-operating system maps the three-dimensional virtual image to the physical hardware display screen to display the three-dimensional image.

The unit cooperative processing device and the parallel cooperative processing device of the present invention based on the virtual technology as described above can automatically switch to the mode mode desired by the user according to various changes of the user's state of the hardware. State, and the unit can coordinate the processing device to transfer information conveniently, quickly and efficiently, and based on the shape correspondence between the numbers and characters familiar to people, it is convenient to input, store, display and by simple operation of numbers. Retrieving multi-national texts, while also developing more features and uses of hardware based on virtualization technology. DRAWINGS

1 is a theoretical architecture diagram for explaining an embodiment of the present invention;

2 is a schematic diagram of a sub-theory based sub-computer programming language for creating a sub-computer system;

3 is a schematic diagram of a sub-theory-based sub-computer system text information processing method;

4(a) is a block diagram showing a configuration of a unit cooperative processing device according to an embodiment of the present invention, and (b) is a view showing an example of a configuration of a control unit of a unit cooperative processing device according to an embodiment of the present invention;

FIG. 5 is a schematic structural diagram of a unit collaborative processing apparatus according to an embodiment of the present invention; FIG.

6 is a functional operation interface layout diagram of an upper surface of a unit cooperative processing device according to an embodiment of the present invention, wherein (a) to (f) specifically show examples of six functional operation interfaces on a surface of a unit cooperative processing device;

7 is a functional operation interface layout diagram of a lower surface of a unit cooperative processing device according to an embodiment of the present invention, wherein (a,) to (f,) specifically illustrate six functional operation interfaces of a lower surface of a unit cooperative processing device. Example

Figure 8 is a schematic view of a connecting member according to an embodiment of the present invention, wherein (a) shows a bidirectional connecting member and an application example thereof, and (b) shows a one-way connecting member and an application example thereof;

Figure 9 is a view showing three specific examples of the bidirectional connecting member according to an embodiment of the present invention, wherein (a) shows a folded bidirectional connecting member, (b) shows a straight bidirectional connecting member, and (c) shows a zipper Two-way connecting parts;

FIG. 10 and FIG. 11 are schematic diagrams showing various transformation states after connecting six unit cooperative processing devices by using a magic board binding method according to an embodiment of the present invention; FIG.

12 is a schematic diagram of a handset mode formed by two unit cooperative processing devices through two-way connection components according to an embodiment of the present invention;

In FIG. 13, (a) to (d) are schematic diagrams of a parallel cooperative processing device obtained by binding six unit-unit cooperative processing devices by a magic board binding method and performing various transformations according to an embodiment of the present invention; 14 is a schematic diagram of a parallel cooperative processing device constituting various uses by a unit cooperative processing device and a function expansion unit according to an embodiment of the present invention;

15 is a flowchart showing the operation of a parallel cooperative processing apparatus according to an embodiment of the present invention;

Figure 16 is a flowchart for explaining a method of realizing a three-dimensional display by the unit cooperative processing device according to the present embodiment;

Figure 17 is a flow chart for explaining a method of generating characters by inputting numbers;

Fig. 18 is a flowchart for explaining a software test method of the unit cooperative processing device of the embodiment. detailed description

Hereinafter, various aspects of embodiments of the present invention will be described in detail with reference to the accompanying drawings. The following embodiments are provided to enable those skilled in the art to fully understand the present invention, and various other modifications are possible. The scope of the present invention is not limited to the embodiments to be described below.

The applicant of the present invention has filed a PCT application under the title "Computer System for Virtualization-Based Technology and Virtual Machine Creation Method", the international application number of which is PCT/CN2008/001730. Among them, the applicant introduced a "sub-computer system", which is a computer model based on the theory proposed by the applicant in the above international application, here we define the theory as "Asia" Theory, and the present invention proposes a specific human-computer interaction device based on the "sub-theory".

1 is a theoretical architecture diagram for explaining an embodiment of the present invention. For ease of illustration and understanding, the various concepts and terminology in the "sub-theory" are continued here, that is, in order to distinguish from the corresponding concepts and terms in the traditional sense, the word "sub" is added before each term.

As shown in Figure 1, RGB-10C shows the "combined map" (English name BOYADO) in the sub-theory. The road map is the inventor of this case. The Taoist thoughts of "There are no births, no births, one life, two lifes, three things" in the Tao Te Ching, and the ancient Greek Pythagoras Based on the philosophical concept of the school, combined with the long-distance, two-short and three-short Taixuan symbols in the symbolic system of the Chinese literary scholar "Tai Xuan Jing" (Unicode: 1D300-1D35F) The substitution method replaces the three symbols with the mathematical unit symbols (1, Q, i) to generate a representation of the sub-coordinate coefficient theory, which is defined as the combined map, also known as BOYADO. The interpretation in the map is "the entity of the Tao as the number", and the Tao (the Great Brahman in the Upanisad) is everywhere and metamorphoss all things, the origin of all things.

Here, you can interpret the whole theory of sub-theories by means of a map (BOYADO). On the system. According to the sub-circle of the sub-theory and the principle of yin and yang in the Tai Xuan Jing, the Tai Xuan number represents the combination of the real number, the imaginary number and the Kun number. Among them, the Kun number is the mathematical concept put forward by the inventor of the case in the sub-theory, and the Kun number is represented by Q. In the Kun number, the zero is divided into Yang Li (positive zero) and Yin Li (negative zero), Yang Li is +0=\/(0/1) (zero divided by the square root of one), and Yin is -0= V(l/0) (-divide by the square root of zero), the unit Q of the number of zeros is the square root of zero, ie Q=VQ.

The characteristic of the combined graph is that the sub-system in the circular sub-coordinate is represented by a 8-shaped spiral vector field and a vector loop that is continuously diffused from the center. The graph is used to interpret the sub-theoretical sub-images. The number of units of Kun number, real number, imaginary number and so on and the relationship between them. The left-right symmetric "sub" word is similarly defined by the sub-coordinate system. The triangle contains a circle, and the bottom of the word "Xuan" is similar to the two interactive triangles (the Israel flag big satellite is similar to the two intersecting triangles), so the sub-coordinate system is also called the Tai-Yuan coordinate system.

In the sub-equivalent identities of RGB on the sub-coordinate system (RB ^A 2+GR ^A 2=GR ^A 2), when RB=1, GR=i, the relationship of L ² +I ² =Q ² is satisfied. In the sub-theory of the combination, in the expression of the yin and yang sub-equivalent identities, the positive expression is l ² +i ² =+0, and the negative expression is i ² +l ² =- 0. There is only one basic subcombination law in the Kun number system of the sub-natural number (Tai Xuan number). Other laws are the arithmetic rules above the sub-combination law. The relationship between sub-zero and one can be used (+0)*(-0 ) = ^{2 2} and (-0) * (+0) = i ² to represent; a positive integer one (1) is the square of the sub-real number unit 1 (lower case of the letter L), and the relation is 1 = 1 ² ; The integer one (-1) is the square of the sub-imaginary unit i, and the relation is -l=i ² . Citation in the arithmetic relation 0 ² =[1+(-1)] ² and the trigonometric relationship c ² =l ² +i ² +2*li*cos(C) When C is {l/2Pi, 3/2Pi } when c ² = +0 and c ² = -0.

The ternary representation of the map (ie, Taixuan ternary):

Replace the well-known -1, 0, 1 with the squares of i, Q, 1 (lowercase of the English letter L). Specifically, as an imaginary unit, use i instead of the number -1; use as a unit of zero, replace Q with 0; use as a real unit, 1 instead of a number 1. In this way, the yin and yang balanced ternary representation method of the combination of the road map is constructed. In the graph, ii=-4, iQ=-3, il=-2, i=-l, Q=0, 1=1, li=2, 1Q=3, 11=4.

The road map is from the inside out, and the first circle in the center is the Kun number Q or the Asian district (light ether Ether, Tai Chi or Yi Tai); the second circle is the 1 and i symmetrical yin and yang circle Or Qiankun Circle. By the second lap, i, Q, and 1 were combined into a simplified diagram of Boyado, named as a hypertext.

The three dimensions of the sub-coordinate system indicate:

The number of sub-numbers in the second to fourth laps of the road map is 26 ( 2+6+18=26 ), and the number is consistent with the number of letters in English. The 26 letters in English can express everything. The basic letter of an international language of all things. 26 numbers mapped to three-dimensional space can be represented as cube knots Structure (magic square shape, middle space). By analogy, the gray shaded part of the merged map is an infinitely evolving expansion circle, which can also be regarded as the endless number of natural numbers. In the sub-coordinate system, the Q-centered whole body is continuously differentiated into a mathematical model of the continuous fraction of smaller floating-point numbers. When the sub-numbers are infinitely arranged in a manner corresponding to the positive and negative diagonal lines, n (n=2*3 ^A m) numbers can be increased for each circle of the road map. This kind of road map is actually a sub-number wheel map. From Pi Yatu, the Pi pi and Ei natural logarithm formula can be derived, and the specific derivation process is omitted here.

The road map is expanded into sub-theoretical sub-numbers or natural numbers (including real numbers, imaginary numbers, and Kun numbers) in the three-dimensional space of the hypercube. Infinite expansion and refinement of three numbers ( cos(n+2Pi)+i*sin(n+2Pi)=e ^A (i*n) =>Ei ^A i*Pi+l=Q Euler's formula evolution, L .Eluer number e=Q ^A 0+l/l !+l/2!+.. l/n!+...; Pi pi, n natural number, i imaginary number, Q emptiness or number), can be linear Relationships, plane relationships, and stereo relationships are converted to each other for analysis.

The sub-coordinate system includes a one-dimensional coordinate system, a two-dimensional coordinate system, and a three-dimensional coordinate system.

Interpretation of the one-dimensional coordinate system:

A one-dimensional coordinate system is obtained by infinitely expanding in the positive and negative directions (i.e., the up and down direction) of the road map with Q as the center. At this time, the Q point of the combined graph is the origin, the upper part is the imaginary part of the one-dimensional coordinate system, and the lower part is the real part of the one-dimensional coordinate system.

Sub-theoretical mid-temporal space in the sub-coordinate system, including the forward natural number (L square is the positive integer of the number), the negative natural number (I square is the negative integer of the number) and the positive central Kun number (the square of Q) is zero. In the district, the axis of the one-dimensional coordinate can be expanded infinitely; the central number of the Q-number on the sub-coordinate system is infinitely expanded and rotated in the joint surface of the yin and yang of the macroscopic and microscopic, so that the suspension is Endless, endless is termination, can be understood as the Buddha's saying that "color is empty, empty is color", the extreme point of time and space is the sub-life cycle (CYC) space-time table of the sub-space of the sub-temporal time.

Interpretation of the two-dimensional coordinate system:

The sub-coordinate system can be expressed on the complex plane coordinate system, with Q as the origin, and the imaginary numbers of the real and negative direction parts i in units of the positive direction portion 1 of the map are placed in Cartesian two-dimensional vertical On the complex plane, you can represent the sub-plane coordinate system consisting of the number axis of Z (X-axis on Cartesian coordinate system) and the number of axes of X (Y axis of Cartesian coordinate system), that is, the well-known two-dimensional coordinate system.

Interpretation of the three-dimensional coordinate system:

From the merged map, extract the numbers in units of Q, i, and 1, respectively, and use the three sets of numbers to represent the three-dimensional coordinate system. (Quin number unit Q = Qon, Quan, Quite; sub-real unit 1 = line, Light , life; sub-imaginary unit i= in, image, imagine).

The sub-coordinate system can also be expressed on the spatially interpreted geometric three-dimensional coordinate system, and the number in the sum of the Q number on the road map is taken as the Y coordinate (the unit of the Y coordinate is Q, expressed as Z in the Cartesian three-dimensional vertical coordinate system). The axis) is combined with the sub-plane coordinate system to form a three-dimensional space coordinate system. 1. i and Q represent the real, imaginary, and quench parts, respectively. You can use T, ", and "\" to cut the sub-points represented in the subspace coordinate system. For example, the point P(l, 2, 3) can be Expressed as P=ll+2i+3Q or P=l/2\3. When Y=Q is placed on Cartesian three-dimensional coordinates, the one-dimensional linear sub-points of the sub-round can be expressed as sub-space coordinates of three-dimensional coordinates. The sub-data, this data structure can be applied to data warehouse mining technology, node combination and parallel computing.

The sub-coordinate system is characterized by the philosophical thoughts of "the whole is fine, the less is, the one (including unity) is the world (public)", and the sub-coordinate system is represented by the curve form.

Among them, the "less" is the lemma, the sub-economic principle in the sub-theory, the natural way does not do anything superfluous, or any unnecessary things, and chooses to deal with and complete in the best, smallest and most complete economic way. thing. According to the sub-economic principle, the arrangement order of the sub-cycles and the arrangement method of the most comprehensive combination results in the least way of matt combination can be inferred. It can be explained that the reason why the sub-coordinate system is represented by the curvilinear coordinate system is that the largest number can be represented in the smallest subspace, and the optimal economic spatial arrangement is the curved type arrangement of the "curve".

The deduction of the sub-economic principle and the natural arrangement of the natural numbers are all mathematical. Imagine why the celestial body is so small that the atom rotates in the form of a curve rather than moving in a straight line. Why do the honeycombs in the animal world choose the container of the most economical hexagonal model? The number is the real entity that controls the world. The forces of nature push all things, and the form is a concrete manifestation of numbers.

The "natural number" (Tai Xuan number) defined by the applicant in this case includes real numbers, imaginary numbers, and Kun number. The moral ethics records that there is a mixture of things and congenital births. This mixed sub-image can be expressed as a number of Kunming. The abstraction is expressed as a real number and an imaginary number, and the Kun number is a real number and an imaginary number.

The number on each revolution in the sub-coordinate system is the expression of the sub-point of a sub-round into a flat sub-network.

(CAINET) structure. A four-pair Internet hierarchy with four sub-centers centered on the sub-coordinate system.

Sub-coordinate system between the layers of the Central Asian network, the sub-light combination of sub-points converges into sub-media, sub-material, sub-gas self-upgrading conversion, self-gain and loss form, sub-space sub-system is the same The sub-ecological environment of the road.

The coordinate system is a reference system for representing and observing the scale of the research world. It is not necessary to use a Cartesian coordinate system. Sometimes it is easier to interpret the mathematical relationship of phenomena using polar coordinates. Said above The sub-coordinate system is just a coordinate system. It serves as a reference system and provides us with a method and perspective for interpreting and studying the real world. The sub-coordinate system itself is not surprising, we understand the true meaning of mathematics through the sub-coordinate system is the last word.

The road map is an attempt to interpret things with a simple, symmetrical, perfect, unified, harmonious, and unpredictable plan, and is a sub-coordinate of the one-dimensional, two-dimensional, and three-dimensional systems, together (silk-like) Diagram. In the sub-theory of the Taoist map, there is no four-dimensional space or multi-dimensional space in the meta-environment of the sub-environment. The sub-theory is only an imperfect epistemological concept proposed by the individual, the computer science and the physics discipline. Various disciplines such as the humanities are combined in philosophy, and the destination of philosophy is mathematics. The sub-theory of the combination is not limited to applications in the computer field.

Perfect number on the sub-coordinate system:

i, Q, 1 in the third lap (six combinations) six combinations (ie, li, 1Q, 11, il, iQ, ii), corresponding to the six sons in the Yijing, can be seen as a complete number Perfect number (special natural number 1+2+3=6, 1*2*3=6).

The relationship between metaphysics and Yi Xue in the Taoist map:

The Qiankun Circle represents the dry (111) Kun (iii) two in the Yijing, and each of the three sons is on the third lap. The six sub-symbols of iil, ili, lii and li (lli), lili, and ill are combined as a binary alternative representation of the gossip diagram.

The relationship between the amount of the meta-number 81 and the number of the easy-to-number 64 in the nine-nine multiplication:

In the sub-theoretical relationship law (CAINEXU) equation b*c=d, the relationship between the two interdependent sub-dimensional quantities of a sub-system is multiplied; the quantitative relationship between things The multiplication method is the basic, the addition is the special order of the quantity of the sub-dimensional; the change of the mantissa of the number obtained by multiplying the numbers of 1 to 9 in the nine-ninth multiplication is an ordered number in the vertical and horizontal directions, 9 times 9 The amount of change is eighty; when the number of digits obtained by multiplying the number of tens digits and the number of digits in the nine-ninth multiplication is repeated, the number of 9 times n is 9 Without change (9*6=54=>5+4=9), the remaining 8 by 8 contains the ordered number and the variation has sixty and four; The change of yin and yang is the multiplication of the variation of the interdependence of the system. The physical quantities in physics are also multiplied, such as the gravitational formula.

Below, a brief introduction to the Tai Xuan ternary as described above.

Table 1 shows the correspondence between decimal, binary, asymmetric ternary (traditional ternary) and symmetric 3 (the mysterious ternary 3C and the ambiguous 3C).

Table 1 Decimal 0 1 2 3 4 5 6 7 8 9 10 11 12 13

Binary 0 1 10 11 100 101 110 111 1000 1001 1010 1011 1100 1101

Decimal 0 1 2 10 11 12 20 21 22 100 101 102 110 112 Xuan Zheng 3C

0 1 li 10 11 lii liO lil lOi 100 101 Hi 110 111 Xuan negative 3C

00 i il i0 Ii ill ilO ili iOl iOO iOi iil iiO lii Taixuan's three-dimensional logical operation uses morality. "I don't know, I don't know, I don't know, I am sick, I don't sick, the saint is not sick." According to its connotation, it is derived from the connotation of "not sick", "Yes, No, No" and the three classifications of the three classification results.

The decimal number itself contains positive and negative numbers, so it is not necessary to perform the processing of the original code, the inverse code and the complement code for converting the negative binary number on the binary computer.

Taixuan triple addition and subtraction operation example

Addition: ii+l=iO (decimal: -4+1=-3); Subtraction: iO-l=ii (decimal: -3-1=-4), l+l=li (decimal: 1+1= 2).

In addition, as shown in Table 1, when the decimal number is 3, the form and value of the hexadecimal and the conventional ternary number are the same.

Table 2 shows the between the two-dimensional and the easy-to-number form

Table 2

* (Bl) Computer Stacked Reverse Processing (B2) Advanced Backward Method Sorts Binary Numbers 侄1 Sequence Airway Six Sons (B2) 110 101 Oi l 001 010 100

Binary to decimal 6 5 3 1 2 4

* (B2) Binary computer inverse code processing (B3) 001 010 100 110 101 Oi l

Binary to decimal 1 2 4 6 5 3

* (B3) 2nd complement mark reverse code processing (B4) 001 010 100

Binary to decimal 1 2 4 6 5 3

Sub-rotation self-elevation measurement equation (RGB) i "2+l "2=Q"2 (Q number unit, i imaginary unit)

Aikido yin and yang classification i 1

*合其道阴阳三进制尾位 0 font type sequence 1 Q i i Q 1

*Heqidao yin and yang ternary tail position 8 font type sequence i Q 1 i Q 1

* Go board stacking method 2-3 conversion 00 10 11 11 01 00

* (B4) JI and yin ternary interchange 2-3 (B5) i i i i i l l i 10 11

The * in the Table 2 section shows the methods and steps for converting binary and ternary values in computer processing.

The way to convert a two-line binary to a hexadecimal line includes: the abacus-based operation and the go-style operation.

As shown in FIG. 1, RGB-10A shows that the binary numbers of the two lines (the binary string of the A line and the B line) are arranged in the corresponding relationship of the columns, and then converted into the abacus calculation method. The method of the decimal (one-way) number string. Here, the black circle is used to represent the binary number 1 and the open circle is used to represent the binary number 0. And for convenience of expression, the formula A(x)+B(y)=C(z) is used to represent the conversion relationship between binary and ternary. The first column in RGB-10A can be expressed by the formula as A(0)+B(0)=C(0), and the second column can be expressed by the formula as A(0)+B(1)= C(1), the third column can be expressed by the formula as A(1)+B(0)=C(2). In addition, when both X and y in the formula take 1 , it can be expressed as A(1)+B(1)=C(10), and two binary string checksums can be used at this time. Aligned signal processing. For the method of converting binary to ternary using the abacus calculation method, refer to Table 3 below.

table 3

As shown in FIG. 1, RGB-10B shows a method in which a binary line of two lines is arranged in a column-corresponding relationship and converted into a three-ary (two-way) number string using a Go-style operation. Here, the black circle is used to represent the binary number 1 and the open circle is used to represent the binary number 0. And for the convenience of expression, the formula A(x)+B(y)=C(z) is still used to represent the conversion between binary and ternary. Department. Here, the Go-style operation can take two forms. The first is that when both X and y are binary numbers 1, z is expressed as a binary 1 , which is expressed as A(1)+B(1)=C(1); When both y and y are binary numbers 0, z is expressed as a decimal -1 , which is expressed as a formula.

A(0)+B(0)=C(-1); When one of X and y is a binary number 1 and the other is a binary number 0, z is expressed in binary 0, that is, expressed as A(1)+B(0)=C(0) or

A(0)+B(1)=C(0). The second is, when X and y are the same number in binary, z is represented as a decimal 0, which is expressed as A(1)+B(1)=C(0) or A(0). ) +B(0)=C(0); When x is a binary number 1, y is a binary number 0, z is expressed as a decimal 1 , which is expressed as A(1) +B(0)=C(1); When X is a binary digit 0 and y is a binary digit 1, z is expressed as a decimal -1, which is expressed as A(0) +B(1)=C(-1). The above-mentioned game type has no carry state. For the method of converting binary to ternary in the form of a Wei-style operation, refer to Table 4 below.

Table 4

Here, when the binary number of the two lines is converted into a decimal number by the abacus type and the go-style calculation method by the computer, the two-digit binary number is converted into a single-digit number, and a pair of memory units is utilized. The adjacent, phase-error, and stacked bit operation modes are implemented by a combination of hardware processing or software processing, and the ternary has vectors (positive and negative 1 and positive and negative 0) and scalars (positive and negative 1). And 0) features.

A binary computer processing chip that is calculated and processed in Taixuan's binary system can increase the processing speed and load more information with a smaller memory space. When using optical technology to propagate information, if the binary method is used, the transmission quality and density of information can be improved. The binary system and the binary system can be mutually compatible, converted, and parallelized by virtual machine technology.

RGB-10D and RGB-10E show sub-system update methods based on sub-economic principles. The matt joint nodes of the 2nd and 3rd order are equally distributed by the uncentered algorithm in a point-to-point communication interaction mode (-m=2n-l, +m=2n). For the matt combination, the information transfer between the linearly arranged nodes has periodic volatility and linear transitivity as well as reflection characteristics, which are connected between the nodes connected by the flat network structure, that is, the matt combination method. Subnetwork protocols communicate and work together Work. For the corresponding technical content, reference is made to the content of the matt combination part of the PCT application with the international application number PCT/CN2008/001730.

Sub-computation is a combination of virtual technologies to convert and switch to a computing model that provides different demand services on a sub-network with sub-terminals as compute nodes. Sub-computing includes sub-sea computing (coagulated clusters) and sub-cloud computing (loosely distributed). . As a computing node, the sub-terminal is built with a virtualized technology sub-mother system, which communicates with other sub-terminals through a matt combination of point-to-point communication, and with distributed virtual media (virtual files, virtual interfaces, and virtual machines). ) merged into a sub-environment system for collaborative computing (sub-computing) and processing. Here, this sub-calculation is defined as a water droplet calculation or a raindrop calculation.

Figure 2 illustrates a sub-theory based sub-computer programming language for creating sub-computer systems. As shown in Figure 2, where WOT1 is the Whator programming language basic syntax table. The computer language statements in the table are based on the 5W1H thinking method, based on the object (What), the purpose (Why), the place (Where), the time branch (When), the operator (Who), the means, and the result (How). (What-or/er) A sub-computer programming language for human-computer interaction in the basic grammar format of parallel computer languages. The Whator programming language is more intimate with people's way of thinking and communication. It is not a professional programmer, but a computer programming language in the form of a scripting language that non-programmers can use, including concept statements (What), functional statements ( Can/Work), conditional statement (When), branch statement (WhenAs), conversion statement (Wise), game statement (Who), expectation statement (Want), attention statement (Warning), exception statement (Why), parallel processing statement (How), data mining search statement (QyFrom/Where), loop statement (For/Will), node connection function (Hello), etc. The Whator programming language does not have the same data constant format classification as the current computer language in data constants. Only sub- and sub-image strings are used. The processing of specific integers and floating-point numbers is handled by the Whator compiler. This avoids the need for programming to learn a variety of complex data types. The Whator programming language is a parallel computer language of the game, setting N to be a set of participants (WHO), for each participant (WHO) setting ^N to a given set strategy £ game (game) Expressed as a function.

WOT2 is a schematic diagram of the UML code module for making the Whator language compiler, and the description is omitted. WOT3 is a YML (Yon Mark Language) representation method and YQL (Yon Query)

Language ) Data query language. YML is a method based on XML, which adds the marking method of the sub-coordinate system to the XML markup language and marks the three-dimensional data by one-dimensional string data. The tree structure of XML can be represented entirely by a 2-dimensional table structure (associative database structure). As shown in the figure, XML is stored and recorded by a two-dimensional table such as al0→a20, al0→b20. Recording data, and data warehouse-style data structures are relatively difficult to represent using XML. In contrast, YML can conveniently represent three-dimensional data. Based on the structural characteristics of the sub-coordinate system, the three-dimensional data can be represented on the computer as a one-dimensional data string. In order to reduce the amount of network data transfer between the compute nodes in a flat network structure, that is, matt combination, the YML file format can be used to transfer and store and update data. And you can interact with other users through the Whator programming language. Since YML is built on XML, it is easy to resolve its compatibility issues.

YML representation methods include plug-in and in-line.

Embedding: YML1=<YML><3Q><X2>1Z</X2><\\3Q></YML>;

Embedded: YML1=<YML><X2> 1 Z<3 \\x/X2></ YML> ,

QB></YML>.

YML is a representation of distributed data serialization.

The representation of the YAML form of YML is not shown.

The representation of the variable is YML1= { [al0\\all,a20\\a21] // [ bl0\\bll,b20\\b21] }

={ [al0//bl0,a20//b20] \\ [all//bll,a21//b21] } Figure 3 Schematic diagram of the sub-theory of the Asian computer system text information processing method.

Computers as information processing devices include digital computing and non-digital processing, and non-digital processing (including word processing) exceeds purely digital computing in modern computer information processing.

Unicode (Unicode, Unicode, Single Code) in a computer is a character encoding used on a computer. The Unicode, although providing a standardized coding method for information exchange, facilitates the unification of information exchange. But there are also its shortcomings, huge fonts and symbology, symbolic updates (assuming that Chinese character reforms need to change some Chinese characters or new languages to join) require constant version upgrades and expansion of the coding space.

The sub-theory of the sub-computer system of information processing methods, using the ancient astronomical astrology (similar to physical points or traditional Chinese medicine acupoints) and Königsberg seven bridge problems and other image mathematical processing methods, point to abstract lines and planes Based on the Euler diagram (and topology), the computer algorithm of the combination of mathematical marker trees, the minimum spanning tree and other graph algorithms, generates the most basic sub-characters (similar to the meridians and domino patterns of Chinese medicine). And using the mathematical model of the Chinese translation of the river map in China and the rotation deformation of Luoshu, the algorithm of the simplest basic graphics is rotated and scaled, and the sub-character is moved, rotated, and scaled. After the transformation, the deformed sub-characters are added by the Tetris game in a top-down or left-to-right order, and added to the Goss grid (optional five-star and thirteen grid shapes) Combine and modify in the corresponding characteristic format to finally generate corresponding image characters. The generated image characters are saved on a specific memory using a OneCode table, and the generated image characters are associated with Unicode encoding. It is compatible with each other and saved in YML form.

The symbols of Arabic numerals (from Indian numerals) can be regarded as the international common language. The Arabic language is the basic sub-character in the sub-language. The localized sub-characters are generated according to the characteristics of the corresponding native language, and based on the localized sub-character. Characters generate sub-roots that are localized characters, such as English letters, Korean letters, simplified Chinese characters, Japanese letters, and so on. Localized characters change the fonts of different shapes through template forms. In Fig. 3, Korean as an example of a localized language shows the entire process from the sub-point to the generation of Korean characters. The process is in order from left to right: forming sub-points → generating sub-characters → generating Korean localization sub-characters → generating radicals by shifting, rotating, and scaling → stacking and modifying to generate words. The correspondence between Arabic numerals and localized sub-characters will be detailed later.

In Fig. 4, (a) is a block diagram showing a configuration of a unit cooperative processing device according to an embodiment of the present invention, and (b) is a configuration example of a control portion of a unit cooperative processing device according to an embodiment of the present invention. Since the configuration of each unit cooperative processing device is the same, only the configuration of one unit cooperative processing device will be described here. As shown in FIG. 4, the unit cooperative processing apparatus of the present invention includes: a firmware memory 1, a private circuit 2, that is, a local bus, a function unit 3, a control unit 6, and a shared circuit 7, that is, a global bus, an interface unit 8, and an external memory 9. The memory 10 and the function expansion unit 5 and the inheritable private circuit 4 may be further included in order to improve the functions of the unit cooperative processing device.

The firmware memory 1 is connected to the shared circuit 7 and has a standardized identifiable code (TID) for identifying a unit cooperative processing device and a virtual internal operating system (hereinafter referred to as VIOS). The VIOS provides various virtualization interfaces and various text and image recognition and generation processing interfaces for the hardware, wherein the text and image recognition and generation processing interface includes a three-dimensional image processing interface and a character reverse operation interface, which will be described later. When the unit cooperative processing device is powered on, the control unit 6 reads the VIOS and TID on the firmware memory 1 into the memory 10, and divides the memory 10 into pages (memory pool area), and runs a virtual machine on each page of the memory layer ( That is the GUEST virtual guest operating system). Each virtual machine provides different application services, including keyboards, game controllers, monitors, musical instruments, PDAs, GPS, smart robots, smart electronic pets, smart transportation aids, smart aircraft and other virtual machines. Suppose that when a group of unit cooperative processing device connections are combined into a parallel cooperative processing device and switched from a keyboard function mode to a GPS function mode, The system switches the keyboard function virtual machine into a GPS function virtual machine to complete the conversion of the parallel collaborative processing device from the keyboard to the GPS.

The functional portion 3 is provided at the outermost layer of the unit co-processing device, and may be provided on the upper surface and/or the lower surface of the unit co-processing device. Various functional interfaces such as a keyboard, a game controller, a display, a musical instrument, a PDA, a GPS, an intelligent robot accessory, a traffic aid, and an aircraft can be arranged in the function section 3.

The private circuit 2 has a first storage firmware (not shown) and is connected to the functional portion 3, and the private circuit 2 is designed corresponding to the functional interface of the functional portion 3, in the first storage firmware A driver for operating the functional unit 3 is stored therein, and when the functional unit 3 is operated, the private circuit 2 generates a corresponding signal and transmits it to the control unit 6 via the shared circuit 7.

The function expansion unit 5 is a peripheral function expansion unit for performing human-computer interaction operations, and may include a game joystick, a robot, a tire, a flying propeller, and the like.

The inheritable private circuit 4 has a second storage firmware (not shown) and is connected to the function expansion unit 5, and the inherited private circuit 4 is designed corresponding to the function interface of the function expansion unit 5, A driver for operating the function expansion unit 5 is stored in the second storage firmware, so that when the function expansion unit 5 is operated, the inheritable private circuit 4 generates a corresponding signal.

The common circuit 7 is a bus for data transmission, and signals generated by the operation of the functional unit 3 and/or the function expansion unit 5 on the private circuit 2 and/or the inheritable private circuit 4 are transmitted to the control unit via a shared circuit. 6. The control unit 6 performs corresponding processing on the received information, and then transmits it through the shared circuit 7.

The interface unit 8 is connected to the shared circuit 7, and the different unit cooperative processing devices are connected and combined by the interface unit 8, and the information is transmitted to each other through a physical connection or a wireless connection. Further, the integrally formed function expansion unit 5 and the inheritable private circuit 4 can be connected to the unit cooperative processing device via the interface unit 8.

The external memory 9 is connected to the shared circuit 7, and internally stores a virtual machine file and a virtual machine configuration table. The virtual machine file includes a virtual machine operating system file, a virtual machine application file, and a virtual machine data file, wherein the virtual machine application file is embedded with a software license agreement and a standardized unified format license number (VID). The virtual machine application file runs on the virtual machine operating system file to form a virtual machine, and during the operation of the virtual machine, a virtual machine data file is generated. The control unit 6 of the present embodiment includes: two CPUs 63, 63'; a ternary parallel processing unit 61 (hereinafter referred to as TPU) for coordinating the operations of the CPUs 63, 63'; The dual master caches 64, 64' of the CPUs 63, 63'; the dual secondary caches 65 corresponding to the TPUs. And the control unit 6 further includes a parallel cooperative cache 62 connected to the TPU to connect the TPU to the shared circuit 7. The TPU synchronizes the data by superimposing the data on the dual-master caches 64, 64 to the dual-sub-cache 65, and exchanges data with the control unit on the other unit co-processing device as shared data. Parallel collaborative processing calculations. The TPU can also control one of the CPUs 63, 63 to perform parallel calculations with other units of the cooperative processing device by means of time sharing operation. Here, by the dual master caches 64, 64, and the dual secondary cache 65, the TPUs interchange the binary and ternary data for cooperative operation of the CPUs 63, 63 for Binary or ternary hardware provides data for the corresponding radix. Specifically, the TPU can connect or cross-connect the dual main caches 64, 64' and the dual sub-caches 65 by controlling the switches, as shown in FIG. 4(b). When the primary Cache I is connected to the secondary Cache II and the primary Cache II is connected to the secondary Cache I (ie, when connected in parallel), each cache constitutes a closed dual-string buffer, and the TPU is from each of the dual-string buffers. Each time the string buffer selects a binary number, and converts the selected 2-bit binary number into a 1-digit ternary number according to the abacus-based operation method or the ubiquitous operation method as described above. When the primary Cache I is connected to the secondary Cache I and the primary Cache II is connected to the secondary Cache II (ie, when the cross-connection is made), each cache constitutes a closed single-string buffer of the Mobius mode, and the TPU is at the same time. Each time the two-string buffer is selected, two adjacent binary numbers are selected, and the selected 2-bit binary number is converted into a 1-digit ternary number by the abacus-based operation method or the ubiquitous operation method as described above. number. Of course, a 1-digit ternary number can also be converted to a 2-bit binary number by a reverse calculation process. According to this, each unit cooperative processing device can perform information transfer by a ternary number, and each unit cooperative processing device can convert the received ternary number into a binary number. YML (Yon Markup) is used for information processing and delivery on a unit cooperative processing device based on a ternary number string

Language)/YAML (Yon Application Markup Language) is a standard language method for reading, writing, storing, displaying and communicating. This can increase the information capacity of the data packet and the information transfer rate between the cooperative processing units of each unit. Of course, each unit can also transfer information between each other through binary data. Although the control unit 6 of the embodiment includes two CPUs, the present invention is not limited thereto, and the unit cooperative processing device of the present invention may include at least one CPU. Of course, the number of dual master caches should also be at least One to correspond to the number of CPUs. In addition, the TPU further includes a three-dimensional gravity sensing device, and the three-dimensional gravity sensing device can sense the position of the unit cooperative processing device, that is, can sense the positive, negative, and tilting states of the unit cooperative processing device.

Further, the TPU uses an optoelectronic chip including a light emitting portion, an image converting portion, and a light receiving portion for converting an electric signal into an optical signal by the light emitting portion, and the light is converted by the image converting portion The signal is converted and processed to the photosensitive portion, and the photosensitive portion reconverts the received optical signal into an electrical signal.

The VIOS stored in the firmware memory 1 also has a character engine built in for causing the unit co-processing device to generate a character image. That is, the character and the corresponding character root are automatically generated based on the Arabic numeral symbol form by the encoding rule, as shown in FIG. Specifically, the corresponding character generation code comparison table is encoded by digital form, and when the character needs to be updated, only the root digital code sequence of the new feature is changed or added to the text character generation code comparison table (using YML form storage). And associated with the corresponding language feature encoding rules and phonetic alphabet and other information). In this way, the unit co-processing device does not need to have a huge font (mobile encyclopedia library) and regional coding, so that the problem of system space overhead and version update can be solved. Here, the character information can be separated and the various localized character information can be intelligently identified and acquired in the matrix content of the scanned image, the screen, and the display memory by the reverse operation method.

The unit cooperative processing apparatus constructed as described above stores information and is a basic condition for information transfer and continuation, and stores information by means of a file in combination with virtualization technology. Hereinafter, the update and operation of the virtual machine file stored in the external memory 9 of the unit cooperation processing device will be described.

When it is necessary to update the virtual machine application file in the virtual machine file of the unit co-processing device, the user can submit the TID and the network address IPV6Q of the unit co-processing device to the developer through the online transaction system. According to this, the developer records and packages the released virtual machine application files that have been tested through a snapshot technology to a virtual machine snapshot file, and embeds the software license association protocol and the standardized unified format license number (VID) into the In the virtual machine snapshot file. The software license association protocol is a protocol in which a VID and a TID of a unit cooperative processing device match each other. Then, the virtual machine snapshot file is published to the online trading system. Therefore, the user can download the virtual machine snapshot file from the online transaction system and copy it to the external storage of the corresponding unit cooperative processing device, without installation. Thereby, when the operating unit cooperates with the virtual machine of the processing device, the virtual machine operating system file first reads the VID in the virtual machine application file (ie, the virtual machine snapshot file stored in the external storage) and the TID on the firmware storage. And software license association Agreement. Therefore, the software license association protocol is used to determine whether the virtual machine application file and the unit co-processing device match, and only if the matching is successful, the virtual machine application file can be smoothly run on the unit cooperative processing device.

In addition, in the information processing of the virtual machine application file, if the user is authorized to use the virtual machine application file of the XLC+OLIC non-portable and unclonable protocol, the user runs the virtual on the virtual machine operating system file. The application file is now sent to the developer's software certification license server by activating the TID of the unit co-processing device and the authorized VID. The developer passes the item number VID in the transaction record and the user's TID and IPV6Q. Updating to its own software certification license server, after receiving the packaged authentication permission request packet, the software authentication license server queries the information base to confirm the user's legality, and returns it to the unit collaborative processing device, so that the user activates and uses the corresponding Applications and services. If the user illegally copies to other plane modules beyond the software license range, since the TID and IPV6Q are inconsistent, the application file authentication cannot be used but cannot be run on other plane modules. The user only purchases the corresponding removable from the developer. Or the cloned application file can be used to run the virtual machine application file on the virtual machine operating system of the unit co-processing device. As a business user, considering the security, the nodes of some data files can be put into the authentication server inside the company, and another part of the data file is placed in the unit cooperative processing device and the authorization is associated. Therefore, when the unit cooperative processing device is lost, the TID of the lost unit cooperative processing device can be reset on the authentication server of the company, so that even if the other party steals the unit cooperative processing device and part of the virtual machine application file, it cannot be opened. Corresponding confidential documents can ensure security without leaking corporate trade secrets to the outside.

Next, a process of combining and combining the parallel cooperative processing devices by the unit cooperative processing device will be described. FIG. 15 is a flowchart showing the operation of a parallel cooperative processing apparatus according to an embodiment of the present invention. As shown in FIG. 15, when the parallel cooperative processing device composed of at least one unit cooperative processing device is powered on, first in step S10, each unit cooperative processing device reads the VIOS and TID on the respective firmware memories into their respective memories. in. Next, in step S11, the VIOS of each unit cooperative processing device respectively performs hardware detection, that is, an interface provided by a shared circuit (and an inheritable private circuit) through a shared circuit (ie, an internal interface), and a functional portion (and The function extension unit reads the corresponding driver into the memory, thereby providing a virtual hardware environment for generating different virtual machines, and each unit cooperative processing device detects an interface unit that is connected with other unit cooperative processing devices (ie, externally Interface, including horizontal connection interface and vertical connection interface), that is, which interface part is detected and Which unit is connected to the processing device, and the interface table is updated by the VIOS, and each unit cooperative processing device senses the respective body positions through the gravity sensing device built in the TPU, that is, the positive, negative, and tilting of the sensing unit cooperative processing device Wait for the status. Then, in step S12, the unit TMCs exchange their respective TIDs according to the hardware detection result by a predetermined protocol, and update the accepted TIDs into their own allocation tables to reach a handshake with each other. Then, in step S13, each unit cooperative processing device merges the respective running VIOS into a whole environment system by a flat network structure, that is, a matt combination mode, by using a point-to-point connection method, and the environment system provides a virtual machine for running the virtual machine. Specific interface. Then, in step S14, the environment system compares the hardware detection result and the sensed posture state and the updated TID with the virtual machine configuration table stored in advance in the external memory, and determines the current parallel cooperative processing device according to the comparison result. State mode at the place. Next, in step S15, according to the determination result of the state mode, the corresponding virtual machine operating system file is activated from the environment system, and the virtual machine application file corresponding to the current mode is run on the virtual machine operating system file. According to this, the state mode of the physical meaning and the state mode of the software sense are matched to realize the function of the current mode of the parallel cooperative processing device.

Hereinafter, a method of realizing three-dimensional display by the unit cooperative processing device of the present invention will be described.

Fig. 16 is a flowchart for explaining a method of realizing a three-dimensional display by the unit cooperative processing device according to the present embodiment.

In the real world, depending on the brightness, color, position and quantity of the light source, the object will have corresponding highlights, dark parts, projections and gloss, etc., while nearby objects are relatively saturated in color, brightness, contrast, etc. High, lower in the distance. If these effects are not present in the screen or if these rules are violated, they will not produce a good three-dimensional effect. Among the three-dimensional display technologies, color separation, spectroscopic, time-sharing and grating technologies are currently in use.

When the unit collaborative processing device of the present invention comprises two CPUs and two virtual display machines corresponding to the two CPUs that are allocated in memory through the VIOS, two two-dimensional virtual screens and one three-dimensional virtual screen are provided, and two two The image overlay change processing on the virtual screen is generated on the three-dimensional virtual screen to generate a three-dimensional effect image, and the three-dimensional effect is achieved by mapping the three-dimensional effect image to the physical hardware display screen.

Specifically, as shown in FIG. 16, first, in step S20, the unit cooperative processing device supplies an image for generating a three-dimensional image to the three-dimensional display virtual machine according to the three-dimensional image processing interface provided by the VIOS. Then in step S21, the three-dimensional display virtual machine performs the image for generating the three-dimensional image. Two-dimensional virtual images are generated after three-dimensional effects such as spatial positioning, shading, and perspective, and two two-dimensional virtual image data corresponding to two two-dimensional virtual images are respectively stored in two two-dimensional virtual screens. Two two-dimensional virtual display memory, at this time, according to the collaborative processing of the two CPUs by the TPU, each CPU processes a two-dimensional virtual image data. Next, in step S22, the two-dimensional virtual image data in the two two-dimensional virtual display memory are respectively read into the two dual main caches of the control section, and the comparison between the two dual main caches is performed. The bit operation generates three-dimensional virtual image data in the dual sub-cache. Then in step S23, the VIOS reads the three-dimensional virtual image data into a three-dimensional virtual display memory corresponding to the three-dimensional virtual screen to generate a three-dimensional virtual image on the three-dimensional virtual screen. Finally, in step S24, the VIOS maps the three-dimensional virtual image to the physical hardware display screen to display the three-dimensional image.

Hereinafter, the physical structure of the unit cooperative processing device of the present invention will be described.

FIG. 5 is a schematic structural diagram of a unit cooperative processing apparatus according to an embodiment of the present invention. As shown in FIG. 5, the unit cooperative processing device is composed of a plurality of slice components superposed, specifically including: a central layer M-1 located at a central portion; and an upper inner layer F1- disposed at an upper surface of the central layer M-1 2; an upper outer layer F1-1 disposed on the upper surface of the upper inner layer F1-2; a lower inner layer B1-2 disposed on the lower surface of the center layer M-1; and a lower surface disposed on the lower inner layer B1-2 The lower outer layer Bl-1.

The central layer M-1 is provided with a firmware memory 1, an external memory 9, a control unit 6, a common circuit 7 and an interface unit 8, and the upper inner layer F1-2 and the lower inner layer B1-2 are respectively provided with a private circuit 2, The functional portion 3 is provided on the outer layer F1-1 and the lower outer layer B1-1, respectively. Here, the upper outer layer F1-1 is associated with the upper inner layer F1-2, and the lower outer layer B1-1 is associated with the lower inner layer B1-2.

Preferably, the unit cooperative processing device is configured in a rectangular shape, and horizontal connection interfaces P0, P2, P5, and P7 are respectively disposed on four sides of the unit cooperative processing device for connecting different unit cooperative processing devices or peripheral components in front, rear, left, and right horizontal directions. . Vertical connection interfaces P1, P3, P4, and P6 are respectively disposed at four corners of the unit co-processing device for connecting different unit cooperative processing devices or peripheral components in the vertical direction. The horizontal connection interfaces P0, P2, P5, and P7 and the vertical connection interfaces P1, P3, P4, and P6 are specific expression forms of the interface unit 8 in FIG.

Hereinafter, specific embodiments of various functional operation interfaces provided on the upper and lower outer layers F1-1 and the lower outer layer B1-1 in each unit cooperative processing device will be described with reference to Figs. 6 and 7 . 6 is a functional operation interface layout diagram of an upper surface of a unit cooperative processing apparatus according to an embodiment of the present invention, and (a) to (f) specifically show examples of six functional operation interfaces of a surface of a unit cooperative processing apparatus. 7 is a functional operation interface layout diagram of a lower surface of a unit cooperative processing apparatus according to an embodiment of the present invention, (a,)~(f,) An example of six functional operation interfaces of the lower surface of the unit cooperative processing device is specifically shown. For convenience of explanation, the upper surface of each unit co-processing device is referred to as a Q surface, and the lower surface is referred to as a B surface.

6(a) to (f) sequentially show examples of the first to sixth functional operation interfaces of the Q-face of the unit cooperative processing device.

The first functional operation interface of the Q surface is shown in Figure 6 (a). Among them, the middle position has a direction key pointing to four directions, the lower left part is a microphone with the word "言", and the lower right corner has a horizontal joystick represented by the word "cloud". Refer to Table 5 for details.

Table 5: Q1

The second functional operation interface of the Q surface is shown in Figure 6 (b). Among them, the central part has a display, a touch screen or a touchpad, the "L" button near the lower left edge is the left mouse button, the "R" button near the lower right edge is the right mouse button, and the middle M1 is a manual custom mode switching button. M2 is an unassigned function key. Refer to Table 6 for details.

Table 6: Q2

The layout of the third functional operation interface Q3 of the Q side is shown in Figure 6 (c). Among them, there are keys in the four directions of the center, and the four keys respectively define different action confirmations in the game and various screen operations, including the "dry" button directly above, the "Kun" button directly below, and the left left side. "Off" key, right The "kan" button of the square, the "Tai Xuan" key in the center is the client host switch button by default. Near the lower left edge, there is a vertical control button indicated by the word "Rain", and the sound speaker indicated by the word "Sound" is placed near the lower right edge. Refer to Table 7 for details.

Table 7: Q3

The fourth functional operation interface of the Q surface is shown in Figure 6 (d). Q4 is a 4-column, 6-line keyboard layout, sorted from the first row in the first column of the left to "PgUp", "8*", "I", "K", ", <", """ The first row of the second column begins with the order of "Home", "9 (", "0", "L", " >", "\|"; the first line of the third column starts to sort down For "End", "0", "P", ";:", "/?", "Won"; where the Won key represents the Windows system's window key or the Apple system's special key; the fourth column first line Start by sorting down into "PgDn", "BackSpace", "[{", "]}", "Shift", "Enter" keys. See Table 8.

Table 8: Q4

The layout of the fifth functional operation interface Q5 of the Q surface is shown in Fig. 6(e). Among them, the upper left corner has the “M3” custom key, the upper right corner has the “M4” custom key, and the upper center is the extended interface part “M5”. “M6” can expand different expansion components, including camera, microphone or Other common extension components such as custom mode extension components. There are 4 columns and 5 rows of keyboard layout in Q5. From the first row in the first column on the left, they are sorted down to "4$", "R", "F", "V", "FN", among them FN When combining the numeric keys and "-" and "+", replace the function keys F1 to F12 in the general keyboard; sorting from the first line of the second column to "5%", "T", "G""B"; the first row of the third column begins to rank down to "6 ^Λ ", "Υ", "Η", "Ν";"G","H","B","N" Part of the track bar; "B" and "N" below the "Spacebar", when the middle part of the circle shape of the track bar points to the virtual object on the screen, the left and right parts of the "Spacebar" square become the left mouse button And the right mouse button function to deal with, other text input when the space bar to deal with; the fourth column of the first row begins to sort down to "7 &", "U", "J", "M", "CA"button; CA 43⁄4 is a case-changing mode custom key. Refer specifically to Table 9.

Table 9: Q5

The sixth functional operation interface of the Q surface is shown in Figure 6 (f). Q6 is a 4-column, 6-line keyboard layout. It is sorted from the first row in the first column of the left to "PrtSc", "ESC", "TAB", "-", ((Shift)), "=+ 》 key; the first line of the second column starts with the order of ((Pause)), "1!", "Q", "A", "Z", "Ctrl"; Sort down to "Insert", "2@", "W", "S", "X", ((Alt)); the first line of the fourth column begins to sort down to "Delete", "3# 》, “E”, “D”, “C”, “·~” keys. Refer to Table 10 for details.

Table 10: Q6

First column second column third column fourth column

PrtSc Pause Insert Delete ESC 1 and! 2 and @3 and #

TAB Q W E

- and A s D

Shift Z X C

= and + Ctrl Alt « and ~ Fig. 7(a,) to (f,) sequentially show examples of the first to sixth functional operation interfaces of the unit side of the unit cooperative processing apparatus. Here, it should be noted that the six functional operation interfaces on the B-plane can be used when a six-unit cooperative processing device is combined into a cubic-shaped three-dimensional keyboard. The layout of the B-face function interface takes into account the special structure of the stereo keyboard and the frequency of English alphabet use, Chinese pinyin letters, and the consonants and vowels of Korean and Japanese.

The layout of the first functional operation interface on the B side B1 is shown in Fig. 7 (a,), and is specifically referred to Table 11. Table 11: B1

The second functional operation interface on the B side is shown in Figure 7 (b,). See Table 12 for details. Table 12: B2

The third functional operation interface on the B side is shown in Figure 7 (c,). See Table 13 for details. Table 13: B3

4 and ¥ 9 and ( 2 and @

The fourth functional operation interface on the B side is shown in Figure 7 (d,). See Table 14 for details. Table 14: B4

The layout of the fifth functional operation interface B5 on the B side is shown in Fig. 7 (e,), and is specifically referred to Table 15. Table 15: B5

The sixth functional operation interface of the B surface is shown in Figure 7 (f,), and is shown in Table 16. Table 16: B6

It should be noted that the layout of the functional operation interfaces of Q1 to Q6, B1 to B6 as described above is merely exemplary, and the present invention is not limited thereto, and the functional operation interface may be arranged in any other manner convenient for the user to use. .

The following describes the connection method of the unit co-processing device. One type of connection mode of the unit cooperative processing device can be connected by a connecting member.

Figure 8 is a schematic view of a connecting member according to an embodiment of the present invention, wherein (a) shows a two-way connection Parts and their application examples, (b) show a one-way connection part and an application example thereof.

In Fig. 8 (a), J1 is a bidirectional connection component for inter-connecting between different units of co-processing devices, and is also a bridge for optical fiber communication or circuit communication between unit co-processing devices. Among them, C1 and C2 are the connection interface parts, and F1 is the connection function part, which can realize the functions of rotation, folding, straight-through, bending and the like. Assuming that the unit cooperation processing devices #1 and #2 are connected to each other, the connection interface portion C1 of the bidirectional connection unit J1 can be connected to the interface unit of the unit cooperative processing device #1, and the connection interface portion C2 can be connected to the unit cooperative processing device. The interface unit of #2 can perform relative rotation, folding, straight-through, bending, and the like between the unit cooperative processing devices #1 and #2 through the connection function portion F1. The two-way connecting member J1 can connect not only the unit cooperative processing devices in the horizontal direction but also the unit cooperative processing devices in the vertical direction.

In Fig. 8(b), J2 is a one-way connecting member for connecting a function expansion unit to a unit cooperating device, that is, a peripheral unit such as a joystick. Where C3 is the connection interface part and F2 is the extension function part. Assuming that the game joystick is connected to the unit cooperative processing device #3, the C3 of the one-way connection unit J2 is connected to the interface unit of the unit cooperative processing unit #3, and the game joystick is connected to the extended function portion of the one-way connection unit J2. On F2. The unidirectional connection member J2 can not only expand the functions of the unit co-processing device in the horizontal direction, but also expand the functions of the unit co-processing device in the vertical direction.

Figure 9 is a three specific example of a two-way connecting member in accordance with an embodiment of the present invention. Here, Fig. 9(a) shows a folded bidirectional connecting member, Fig. 9(b) shows a straight-through bidirectional connecting member, and Fig. 9(c) shows a zippered bidirectional connecting member. In addition, the two-way connecting parts can also adopt a two-way connecting part, a rotary two-way connecting part, a bone-and-two-way connecting part, a wire-knotted two-way connecting part, a book type two-way connecting part, and a button type two-way connecting part. , snap-on two-way connection parts and other forms that are convenient for the user.

Another way to connect the unit co-processing devices is to use the magic board binding method to connect. Rubik's Magic is an intellectual toy invented by the inventor of the Rubik's Cube, the Hungarian sculptor, and the professor of architecture, Professor Erno Rubik. It was first produced by Matchbox in the 1980s. In order to bind the square components to form a magic board, there is a 1HJ slot on each square component. Since the binding mode of the magic board is already a well-known technology, it will not be described here. The advantage of using the magic board binding method is that each unit has its own unique flexibility in cooperating processing devices, and can change or form a parallel cooperative processing device required by a user of a specific shape by actions such as folding, flipping, and the like.

FIG. 10 and FIG. 11 show that after connecting six unit cooperative processing devices by using the magic board binding method, A schematic diagram of various transformation states. As shown in FIG. 10, after the magical binding method is applied to the six-unit cooperative processing device, the mode M1 of the 1×6 array can be configured first. Here, the mode M1 is the most basic mode, and the other modes M2 to M6 are derived from the mode M1. Specifically, the mode M2 is formed by folding the Q1 to Q3 planes upward with respect to the contact portions of the third and fourth unit cooperative processing apparatuses in the mode M1. The mode M3 is configured such that the contact portions of the third and fourth unit cooperative processing devices in the mode M1 are folded in half, and the Q4 to Q6 faces are placed above. The mode M4 is formed by folding the contact portions of the second and third unit cooperative processing devices in the mode M1 and the contact portions of the fourth and fifth unit cooperative processing devices twice, and placing the Q1 to Q2 faces upward. . The mode M5 is configured by expanding the Q4 to Q6 planes placed below from the mode M2. The mode M6 is formed by expanding the Q1 to Q3 planes placed below from the mode M3. As shown in Fig. 11, the mode M7 is a stereo keyboard which has evolved from the mode M1, and the outer surfaces of the stereo keyboard are constituted by the B1 to B6 faces which are the lower surfaces of the unit cooperative processing device.

It is to be noted that the inventor of the present invention introduced a stereo keyboard in the PCT application with the international application number PCT/CN2008/001731. Among them, the Korean input method and the Japanese input method based on Pinyin as the phonetic elements are introduced in detail. The input method based on the word phone is a method of inputting text based on the intrinsic relationship between the 26 letters of English and the spelling of other characters. The parallel cooperative processing apparatus of the present invention can bind the input method and the character input method of the word sound element in the YML, thereby improving the input speed and integrity of the text.

In FIG. 10 and FIG. 11, although the magic board type binding method is used for the six unit cooperative processing apparatuses, the present invention is not limited thereto, and as long as two or more unit cooperative processing apparatuses are used, the magic board type described above may be used. Method.

In addition, magnets can be embedded in the horizontal connection interface and the vertical connection interface of the unit co-processing device for making the connection more secure and accurate when the unit co-processing devices are connected to each other. Considering the principle of the same-pole repulsion and the different-pole attraction of the magnet, the polarity of the magnet is designed in a reasonable manner at the connection interface of the unit co-processing device according to the connection relationship of the unit co-processing device preset according to the layout of the functional unit. . In Figures 5-8, 11-14, the vertical connection interface is indicated by a solid circle and a hollow circle, and the solid circle and the hollow circle may represent different polarities of the magnets embedded in the vertical connection interface. Although the polarity of the magnet embedded in the horizontal connection interface is not shown in the drawings, those skilled in the art should understand that the polarity of the magnet can also be rationally designed in the horizontal connection interface. Here, when the suction force of the magnet is sufficiently large, the suction of each unit can be completely connected by the suction of the magnet.

It should be noted that the present invention can arbitrarily mix and use the connection using the connecting member as described above. The method and the magic board binding method and the connection method using the magnet suction force can be more flexibly configured or switched to the parallel cooperative processing device to meet the customer's needs.

Next, the operation of the parallel cooperative processing device constituted by the unit cooperative processing device will be specifically described.

Figure 12 is a schematic diagram of a handset mode formed by two unit cooperating devices through a two-way connection component. As shown in FIG. 12, the mobile phone mode includes: a first unit cooperative processing device having a display screen, and a liquid crystal panel is disposed on the upper outer layer F1-1 of the first unit cooperative processing device, and the upper inner layer F1-2 is disposed. a liquid crystal panel circuit board corresponding to the liquid crystal panel is disposed, and a central layer M-1 of the first unit cooperative processing device is provided with a firmware memory, an external memory, a control unit, a common circuit, and an interface portion; a second unit cooperative processing device, the upper unit F1-1 of the second unit cooperative processing device is provided with a mobile phone keyboard, and the upper inner layer F1-2 is provided with a mobile phone keyboard circuit board corresponding to the mobile phone keyboard, and The central layer M-1 of the second unit cooperative processing device is provided with a firmware memory, an external memory, a control unit, a shared circuit, and an interface unit; a bidirectional connection for connecting the first unit cooperative processing device and the second unit cooperative processing device Part Jl. The first unit co-processing device may be integrally provided with a speaker for use as an earpiece of the mobile phone; and the second unit cooperative processing device may be integrally provided with a microphone for use as a microphone of the mobile phone. Of course, the speaker and the microphone may also be respectively connected to the first unit cooperative processing device and the second unit cooperative processing device by a one-way connecting member. Similarly, the signal transceiving component of the mobile phone may also be integrally disposed on the first unit co-processing device or the second unit co-processing device, or may be connected to the first unit co-processing device or the second through a one-way connecting component. Units are coordinated on the device. When the horizontal connection interface of the first unit co-processing device and the second unit co-processing device is connected by the two-way connecting member J1, the magnets buried in the interface portion attract each other and become stronger and stronger. As shown in Fig. 8, since the two-way connecting member J1 has the connecting function portion F1, the first unit cooperative processing device and the second unit cooperative processing device which are mutually connected by the two-way connecting member J1 can be folded to each other to realize the flip function of the mobile phone. Here, the back side portion of the first and second unit cooperative processing device may be provided with a rechargeable battery for supplying power to the device.

When the parallel cooperative processing device constituting the mobile phone mode as described above is powered on, first, the TPUs of the first and second unit cooperative processing devices respectively read the VIOS and TID on the respective firmware memories into their respective memories. Then, the VIOS of the first and second unit cooperative processing devices respectively perform hardware detection on themselves, that is, the first unit cooperative processing device connects the interface provided by the liquid crystal panel circuit board through the common circuit on the central layer thereof, and reads from the liquid crystal panel circuit board. Take the LCD panel driver and read it into the memory. And the second unit cooperative processing device connects the interface provided by the mobile phone keyboard circuit board through the common circuit on the central layer, and reads the mobile phone keyboard driver from the mobile phone keyboard circuit board and reads into the memory, thereby providing virtual for generating the mobile virtual machine. The hardware environment, at the same time, the first and second unit cooperative processing devices respectively detect the interface parts in the connected state, that is, the first and second unit cooperative processing devices respectively detect which interface part of the user is connected with another unit cooperative processing device (the first unit cooperation The horizontal connection interface under the processing device is connected to the horizontal connection interface above the second unit co-processing device, and the interface table is updated by the VIOS, and at the same time, the first and second unit cooperative processing devices respectively pass the gravity built in the TPU The sensing device senses the respective body positions, where the first and second unit co-processing devices will respectively sense that the Q face is arranged upward. Then, according to the hardware detection result, the first and second unit cooperative processing devices exchange their TIDs with each other through a predetermined protocol, and update the accepted TIDs into their own allocation tables to reach a handshake with each other. Then, the first and second unit cooperative processing devices combine the running VIOS into a whole environment system by a flat network structure, that is, a matt combination mode, by using a point-to-point connection method, and the environment system provides a virtual machine for running the mobile phone. Specific interface. Then, the environment system compares the hardware detection result of the first and second unit cooperative processing devices with the sensed posture state and the updated TID with a virtual machine configuration table stored in advance in the external memory, and determines the current parallel according to the comparison result. The collaborative processing device is in the handset state mode. Then, according to the determination result of the state mode, a virtual machine operating system file corresponding to the mobile phone mode is activated from the environment system, and a virtual machine application file corresponding to the mobile phone mode is run on the virtual machine operating system file. According to this, the physical meaning of the mobile phone mode and the software-like mobile phone mode work together to achieve a real mobile phone function. Here, the first and second unit cooperative processing devices constituting the mobile phone mode can transfer data to each other in a ternary manner, which can improve the working efficiency of the entire device. Here, although only the parallel mode cooperative processing device of the mobile phone mode constituted by the two unit cooperative processing devices is described, those skilled in the art should understand that various other modes besides the mobile phone mode can be constructed by the connection components. Parallel collaborative processing device.

In Fig. 13, (a) to (d) are schematic diagrams of a parallel cooperative processing device obtained by bundling six unit cooperative processing devices by a magic board binding method and performing various transformations, wherein Fig. 13(a) shows The game manipulator mode, FIG. 13 (b) shows the traditional keyboard mode, FIG. 13 (c) shows the front notebook keyboard mode, the reverse side is the GPS mode, and FIG. 13 U) shows the front side as the PDA keyboard mode, The reverse side is the PDA mode.

Referring to Figures 10 and 13 (a) to U), the various modes described are all derived from the mode M1. Here, FIG. 13(a) will be described first. When changing from mode M1 to mode M2 (ie swim The device of the present embodiment can implement the game manipulation device function. At this time, the first to third unit cooperative processing devices are above, and the fourth to sixth unit cooperative processing devices are below. When the parallel cooperative processing device constituting the game manipulating device mode as described above is turned on, first, the TPUs of the first to sixth unit cooperative processing devices respectively read the VIOS and TID on the respective firmware memories into their respective memories. Then, the VIOS of the first to sixth unit cooperative processing devices respectively perform hardware detection on themselves, that is, the first to sixth unit cooperative processing devices respectively connect the private circuits arranged in the upper and lower inner layers through the common circuits on the respective central layers. The interface provided by the name of the specific private circuit is omitted, and the driver of the functional part (the name of the specific functional part) disposed in the upper and lower outer layers is read from the private circuit and read into the respective memory, thereby Providing a virtual hardware environment for generating the game operating device virtual machine, and the first to sixth unit cooperative processing devices respectively detect the interface portions respectively in the connected state, that is, each unit cooperative processing device respectively detects which interface portion of the interface unit cooperates with which unit The processing devices are connected (the four vertical connection interfaces of the first unit co-processing device are connected to the four vertical connection interfaces of the sixth unit co-processing device, and the left horizontal connection interface of the right horizontal connection interface and the second unit co-processing device) Connected; the connection state of the interface part of the second to sixth unit cooperative processing device Referring to FIG. 10 and FIG. 13 in the same manner, the interface table is updated by the VIOS, and at the same time, the first to sixth unit cooperative processing devices sense respective body positions through the gravity sensing devices built in the TPU, respectively. The first to third unit cooperative processing devices respectively sense that the Q faces are arranged upward, and the fourth to sixth unit cooperative processing devices respectively sense that the Q faces are arranged downward, that is, the first to third unit cooperative processing devices The B face and the fourth to sixth unit are in contact with the B face of the coprocessing apparatus. Then, according to the hardware detection result, the first to sixth unit cooperative processing apparatuses mutually exchange the respective TIDs by a predetermined protocol, and update the accepted TIDs into their own allocation tables to reach a handshake with each other. Then, the first to sixth unit cooperative processing devices combine the running VIOS into a whole environment system by a flat network structure, that is, a matt combination mode, by means of a point-to-point connection manner, and the environment system is provided for running the game operating device The specific interface of the virtual machine. Then, the environment system compares the hardware detection result of the first to sixth unit co-processing devices and the sensed posture state and the updated TID with a virtual machine configuration table stored in advance in the external memory, and judges the current according to the comparison result. The parallel collaborative processing device is in a game console state mode. Then, according to the determination result of the state mode, a virtual machine operating system file corresponding to the game device mode is activated from the environment system, and a virtual machine corresponding to the game device mode is run on the virtual machine operating system file Application file. Accordingly, the physical game device mode and the software game device mode are matched. Work to achieve true game console functionality. In order to expand the functions of the game operating device to meet more requirements of the game player, as shown in FIG. 13(a), the interfaces (horizontal connection interface and vertical connection interface) of the first to third unit cooperative processing devices can be connected. Various function expansion components, such as left and right hand game control buttons, cameras, etc. In addition, it should be noted that the present invention can turn off the power of the fourth to sixth unit cooperative processing devices below according to the judgment result of the mode, thereby saving power consumption of the entire device (of course, it is also possible to turn off the power supply).

The conventional keyboard mode M3 shown in Fig. 13 (b) can be changed from the mode M1, or the mode M2 can be flipped by 180 degrees. However, no matter which way is used to obtain the mode M3, the working principle is the same as that of the game operating device mode as described above, and thus will not be described in detail herein. Similarly, the description of the modes M4 to M5 shown in Figs. 13(c) to 13(d) is omitted here.

The various parallel cooperative processing devices constructed by the unit cooperative processing device of the present invention are not limited to the above-described embodiments, and the user can freely combine the required parallel cooperation according to the functional portions provided in the upper outer layer and the lower outer layer. Processing device. As shown in Fig. 14 (a) to U), after connecting the function expansion parts such as the head, arm, and leg of the robot to the interface unit of the unit cooperative processing device, it can be used as an intelligent robot toy, and the unit co-processing of the present invention is the same. The device can also be combined into an electronic guitar mode, an unmanned aerial vehicle mode, a cloud server mode, and the like. In addition, after the strap is connected to the unit co-processing device having the watch display panel, it can be used as a watch, and 12 equal-magnitude music number keys can be arranged on the surface of the unit cooperative processing device, and a plurality of such units can be coordinated. The processing devices are combined in series into a parallel cooperative processing device in a piano mode, and a virtual machine having an electronic piano function is activated in the device.

In software development, the quality of software directly affects the user's use of the software. Software testing is an important part of the lifecycle of software engineering, and software development is always performed in parallel.

The software tester tests the software through a human-computer interaction device such as a screen, a keyboard, and a mouse. The screen is a standard output interface, and the keyboard and mouse are standard input interfaces.

Software testing includes white box testing and black box testing.

Today, automated software testing methods are basically divided into object testing methods and dot matrix testing methods. The object testing method generally determines the various objects on the software window by intercepting the interface provided by the computer system, and tests the combination of the tested objects; the dot matrix testing method is because some application software does not provide an interface of the software object. (such as using virtual machine technology to package and hide objects, java-vm, flash-vm, etc.), so that the object can not be identified and the software can only be tested by the relative position of the software window by mouse click positioning. A software testing method using virtual machine technology, intercepting screen information from a standard output interface (screen or display memory) of a virtual machine and separating virtual objects from image dot matrix information of the display memory by image analysis technology, using image characters The analysis method identifies the text information contained in the virtual object, and controls the virtual object through the virtual input interface (the virtual keyboard and the virtual mouse driving device), thereby controlling the entity object of the tested software running on the virtual machine under test. This method is characterized by the fact that it is independent of the object used by the specific development software, so there is no need to install the test software in the system where the software under test is located to identify and control the properties of the specific object of the software being tested (such as the current popular automation). Test software QTP, Rational Robot, SilkTest, use the tested software or agent test software to install the test).

The software testing method using the virtual machine technology associates the testing software as a testing system with a tested virtual machine including the tested software through a test virtual machine, and provides the virtual machine provided by the tested virtual machine. The standard input and output interface tests the tested software by testing the virtual object on the virtual machine to control the entity object on the virtual machine being tested.

The test virtual machine judges the difference between the two screens by superimposing and comparing the dual virtual screens, quickly compares the changes of the objects on the test virtual screen, and processes the corresponding test operations.

The software being tested increases the security of the software by reducing the leakage of the operational interface that provides internal objects to the external environment.

The virtual object on the test virtual machine develops and designs a virtual object set in a test application of the test virtual machine according to the object characteristics of the tested software, and tests the application on the tested virtual machine by driving the virtual object set. program.

The test software on the test virtual machine and the test software on the tested virtual machine are simultaneously developed in the software project.

The test virtual machine automatically generates a permutation combination as a test case to drive and operate each virtual object through the tested virtual object in each node of the software test path (a software window), and tests the virtual screen image The result is recorded in the virtual machine data file on the test virtual machine to analyze and count the data of the test result, and the test report of the tested software is made by the data mining method for reference by the software tester.

Fig. 18 is a flowchart for explaining a software test method of the unit cooperative processing device of the embodiment. As shown in FIG. 18, the software testing method based on the virtual machine technology includes the following steps. First, in step S40, the tested virtual machine equipped with the tested software and the test virtual machine equipped with the test software are copied to the unit cooperative processing device through the interface of the unit cooperative processing device. Then in step S41, solid The VIOS of the piece of memory associates the tested virtual machine with the test virtual machine, so that the two bear the test and the tested roles respectively, and runs the above two virtual machines, and the VIOS allocates the CPU resources to the test virtual through the TPU of the control unit. Machine and virtual machine being tested. Then, in step S42, the test software on the test virtual machine calls the character reverse operation interface provided by the VIOS, and identifies and separates the image of the running state in the tested software from the display memory of the tested virtual machine of the unit collaborative processing device. information. Then, in step S43, the tester logs in to the test virtual machine, operates the tested software by testing the interface associated between the virtual machine and the tested virtual machine, and creates and generates a generated and tested virtual machine on the test virtual machine. Test the virtual object and virtual object set corresponding to the entity object of the software, and record and analyze the user's operation actions and custom paths on the test software of the test virtual machine. Here, in the case of the tester's authorization, the test software on the test virtual machine can automatically drive the virtual object to operate the entity object according to the recorded tester's custom path, that is, each of the tested software on the tested virtual machine. Nodes - expand each software window and entity object, and compare and determine the virtual objects in the virtual object set. In step S44, the character reverse operation interface provided by the VIOS is used to identify the text information in the entity object and the dual display memory area provided by the virtual machine, and operate and record in all directions through different arrangement and combination. Here, the test software can automatically handle the test work with exploratory and repetitive characteristics under the authorization of the tester. The test is not on the test line but on the test surface to achieve the integrity and quality of the software test. . Finally, in step S45, the test software stores the test results and the results of the data mining in the test result file and provides them to the tester for judgment and confirmation.

The software testing method is performed by the unit cooperative processing device as described above, and the software testing is performed in the manner of the outside of the tested software system (outside the virtual machine) and the internal (current software testing mode), and the virtual automated testing technology is used. An angle test software for the integrity of the software being tested. As a result, existing software linear testing can be extended to face testing to improve the integrity and quality of software products after testing. This test method is independent of the internal objects of the application software design. The packaged software application object is encapsulated in a virtual machine (VM) so that the detection software cannot be tracked to ensure the security of the software, and the automatic processing is repeated with the authorization of the software tester. The software testing of the features allows software testers to focus more on analyzing and testing software quality.

Next, a text information processing method of the parallel cooperative processing device will be described.

There are currently more than 3,000 known languages in the world. The difference between world languages is so great that people from different places may not understand each other at all. In view of this, some people have created artificial language to facilitate communication, such as Esperanto. Language is a set of common communication symbols and expressions. With processing rules. Symbols convey information in a visual, sound, or execution manner. Strictly speaking, language refers to the language used by human communication - natural language. Natural language has been changing its literals over a long period of time, and today it has evolved into a complex symbolic system. Although these seem complicated, they all operate through some simpler internal laws. In other words, although language as a medium for human communication is complicated, it has its inherent natural laws, that is, the basic text symbols in various languages can be regarded as composed of more basic symbols.

Here, we define the more basic symbol as "like a digital element", and the basic literal symbol composed of the digital element is defined as "like a digital root". The digital root is the most basic unit that people usually understand to form various languages, such as 26 letters in English, radicals and radicals of Chinese characters.

Here, as the digital element, the world-wide decimal Arabic numerals 0 to 9 are used. In the various languages of the world, the basic unit constituting the text can establish a many-to-one correspondence between the shape analysis and the numbers 0 to 9. Therefore, the user can input the relevant language characters by operating the numbers 0 to 9 according to the shape of the text without knowing the relevant language characters. This input method is defined as "like digital input method".

The essence of the symbol character is a two-dimensional image. The computer expresses the two-dimensional image through a one-dimensional string of numbers. The method of generating image symbols and the vector relationship are generated by one-dimensional digital string segmentation into a matrix. A method for representing an image symbol, and various text symbols are combined into a corresponding national character symbol by a basic specific symbol image generation rule, and the computer first calculates an algorithm to generate a basic text symbol, and uses the combination, variation, and The decorating method generates a basic set of literal symbols.

When the operating system on the virtual machine selects a digital input method of a specific language, the digital input method calls the character encoding provided by the virtual machine, and the virtual machine invokes the character engine on the VIOS by the character encoding input by the user. Generate text character information and pass it or display it on the screen. Generation.

The software processing method uses the pre-defined basic characters in the VIOS, opens up a virtual screen through the data matrix in the memory, and projects the changed characters on another virtual screen by controlling the rotation, scaling, and mirroring algorithm operations of the data matrix. A predetermined area on the top generates a word.

The hardware processing method uses the basic characters encoded by the predefined hardware instructions on the VIOS, and generates characters by controlling the TPU of the control unit on the unit cooperative processing device. Fig. 17 is a flowchart for explaining a method of generating characters by inputting numbers. As shown in FIG. 17, in step S30, when the user wants to input text using the unit cooperative processing device, it is only necessary to input a number corresponding to the character to be input through the numeric keypad on the unit cooperative processing device. Next, in step S31, the unit cooperative processing device generates a hardware word encoding instruction according to the number input by the user, and the hardware word encoding instruction includes character information, radical information, and radical region information. Then, in step S32, the character engine built in the VIOS displays the corresponding character on the light emitting portion of the TPU according to the character information. Next, in step S33, the character engine converts the characters displayed on the light emitting unit by the image conversion unit of the TPU by rotation, scaling, and mirror conversion according to the word root information and the root region information. The root portion is irradiated onto a predetermined area of the photosensitive portion of the TPU. Since a word may consist of a number of roots, it is necessary to repeatedly perform the steps S32 and S33 in accordance with the hardware word encoding instructions. Finally, in step S34, the light-receiving unit superimposes all the words of the predetermined area to generate characters.

The character generated on the photosensitive portion of the TPU generates an electrical signal by photoelectric conversion processing, transmits and stores the electrical signal, projects it onto the virtual display memory, and displays the information of the display memory on the display.

Further, the character generated by the above steps is stored in the external memory of the unit cooperative processing device in a digital form corresponding to the digital form of the character. When the text information is queried by the keyword, the digital article stored in the external memory is searched according to the number corresponding to the keyword, and the matched digital article is displayed to the user in text form.

In addition, it should be noted that when the unit collaborative processing device has a numeric keypad, it preferably uses the following layout:

This layout of the numeric keypad, when the numbers are added in the horizontal, vertical, and diagonal directions based on the center "5", the result is "15". Therefore, this layout of the numeric keypad facilitates the user's quick memory.

Below, the relationship between numbers 0 to 9 and various languages is introduced.

The correspondence between the numbers 0 to 9 and the English letters is shown in Table 17.

Table 17

In order to remember the correspondence between numbers and English letters, you can remember them through the following words. That is, 1 is I, J, T vertical plus point; 2 is N, Q, Z with tail; 3 is E, M, W eye chart right lower; 4 is eight, K:, R feet open; 5 For X, Qu Qumei; 6 for, G, U bending line; 7 for V strong bending; 8 for H two pieces of symmetry; 9 for F, P, Y golden chicken independent; 0 for 0, 0 nine palace circle closed circle.

As a first alternative of the English image input method, when the parallel cooperative processing device of the present invention enters the English image input method mode, the text input can be performed by using the * key and the # key on the function portion of the device. That is, referring to Table 17, when a certain number is pressed, the default is to input the first letter corresponding to the number; after pressing a certain number, press the * key, the default is to input the second letter corresponding to the number; After pressing the number, press the # key. The default is to enter the third letter corresponding to the number. Taking the number 2 as an example, when pressing 2, N is input; when 2* is pressed, Q is input; when 2# is pressed, Z is input. The input of other letters can be deduced by analogy.

As a second alternative of the English image input method, when the parallel cooperative processing device of the present invention enters the English image input method mode, the text input can be performed by continuously pressing the numeric keys. That is, referring to Table 17, when a certain number is pressed once, the default is to input the first letter corresponding to the number; when a certain number is pressed twice consecutively, the default is to input the second letter corresponding to the number; When a number is pressed three times in succession, the default is to enter the third letter corresponding to the number. Or take the number 2 as an example. When you press 2, you will enter N; when you press 22, you will enter Q; when you press 222, you will enter Z. The input of other letters can be deduced by analogy.

When you need to enter a number, enter it with the number keys plus the # and * keys. That is, 1 is 1#*; 2 is 2#*; 3 is 3#*; 4 is 4#*; 5 is 5#*; 6 is 6#*; 7 is 7#*; 8 is 8#*; 9 is 9#*; 0 is 0#*.

When you need to enter a space, enter it by pressing the # key twice. That is, the space is ##. When you need to enter a special symbol, use the numeric keys plus * and # keys to enter. That is, ".()" is 0*#; "! |" for 1*#; "? =―" is 2*#; "@;" is 3*#; "& \" is 4*#; "%/*" is 5*#; ""," is 6*#; "+ -" is 7*#; "$~" is 8*#; ", []" is 9*#.

In addition, the inventor of the present application, based on the one-to-many correspondence between the numbers 0 to 9 in Table 17 and the English characters, replaces the 20,000 ordinary English vocabularies with numbers, and the non-repetition rate of the digital group thereof The results of the statistics are shown in Table 18 below.

Table 18:

By this, we can judge that when the user inputs only the corresponding number according to the alphabetical order of an English vocabulary, the non-repetition rate of the digital group is quite high. Therefore, as a third option of the English image input method, only the corresponding number can be input according to the alphabetical order of the English words. If an unintended English vocabulary is displayed based on the entered number group, the user can select an English vocabulary to be input from among a plurality of English vocabulary groups corresponding to the input number group displayed in the arrangement. However, the method for the user to select the vocabulary that he or she wishes to input is widely used in many input methods, and thus the present invention will not be described again.

Assume that the user wants to enter "my name is cai" through the third English image input method, just enter "39 2433 15 641". And the set of numbers entered by the user is in digital form, ie "39

2433 15 641" forms of digital articles are stored in the external memory of the unit co-processing device. Thus, when the user wants to search for related articles using the keyword "cai", the unit cooperative processing device will be based on the number group corresponding to "cai". "641" retrieves from the digital article stored in the external memory and displays the matching digital article to the user in text form.

Korean phonetic symbols include 19 consonants, 21 vowels, and 27 radios. The radio is written in the same way as the consonant. Every word in Korean is composed of "consonant + vowel" or "consonant + vowel + radio".

In this embodiment, the correspondence between the numbers 0 to 9 and the Korean alphabet is as shown in Table 18. Korean

Enter

1 ■I l_ people,

Letter

Number 1 2 3 4 5 6 7 8 9 0

In Table 18, the symbol indicates that the number 6 is used to rotate the character 90 clockwise. , the symbol " ( , means that the number 9 is used to rotate the character 90° counterclockwise, the symbol ^ " means that the number 8 is used to mirror the character symmetrically.

In this embodiment, all Korean vowels are represented and input by the combination and rotation between the three basic vowels "I, =1", through the seven basic consonants "L, Man, [, , , td, ext, o" combination and rotation to represent and input all the consonants and radio letters of Korean, specifically ^.

Examples of vowels: I is 1; 2; =1 is 3; - is 16 or 19 (I rotates clockwise or counterclockwise by 90°) Bra is 28 (-\ mirror symmetrical display) I: 38 (=1 Mirror symmetrical display 丄 is 26 (will rotate clockwise 90.); 36 (will = 1 clockwise 90); D = 29 (rotate 90° counterclockwise); τ is 39 (will = 1 counterclockwise rotation 90°); H is 12 (combination of I and ); H is 13 (combination of I and 4); 21 (combination of I and I); l is 31 (combination of 4 and I); 1 is 291 (combination of τ and I); 丄I is 261 (combination of 丄 and I); 丄 is 2628 (combination of 丄 and 卜); 丄H is 2612 (combination of 丄 and H); ^ is 292 (combination of τ and sum); ” is 161 or 191 (combination of one and I).

Examples of consonants: , 7; >~ is 4; c is 6; ≡ is 76 (, combined with c); □ is 74 (, combined with >~); ·=" is 8; o is 0; extinction is 9; canine is 54 or 52 (human and !_ or a combination of human and sputum); s is 04 or 02 (o and L or a combination of o and 丄); is 71 (, and I Combination); E is a combination of 61 and I); ^: 86 or 89 (will ·= "clockwise or counterclockwise rotation of 90., ϋ rotation of 90." "π is 77 (, and the combination of;); [For a combination of 66 and C); from 55 (a combination of people and people); Htj is a combination of 88 (>=" and "=".

Examples of radios (including consonant parts): , artificial 75 (, and human combination); LS is 440 (! _ and 3⁄4 combination); Η人 is 85 (·=" and human combination); ax is 55 (a combination of ≡ and people).

Other letters not mentioned in the above description can be spelled and entered in a similar manner.

In addition, the above content is merely exemplary, and is not limited thereto, and it is also possible to refer to the content shown in Table 19 and input Korean letters. Table 19

For example, the user needs to enter "One time, you can enter 11 or you can enter 17. The input of other letters can be deduced by analogy.

As an example of a Korean image input method, when the user desires to input "^ 丕, then enter 0348349265249267 in order.

Here, the Korean text information can also be stored in the external memory of the unit co-processing device by means of a digital article, while the matching digital articles are retrieved by the digital group corresponding to the keyword. The principle and method can refer to the English part above.

The correspondence between the numbers 0 to 9 and the Chinese radicals is shown in Table 20. Table 20

[一i fly L (3, Chinese people, Beixiang goats 1 2 3 4 5 6 7 8 9 0

1 一丄 'J 子十丁^1 十

2 Ρ heart 隹升升广

3 三丰门女韦厶 ((王才, 宍

4 fire, 夂乂 fork, Yi production and history

5 土纟幺缶疋豕皮卓

6 水立巨臣殳臼 U 氺大

July 7 匕匕 , / 衣衣 same

Λ-Λ-

8 wood, end, rice, rice, tea, ten

9 gold fish 几 a few pounds spoon

0 曰巨 Jutian Four mothers and Bu P as the user does not need to memorize all the contents of the table 18 . The user only needs to associate the correspondence between the numbers and the radicals of the Chinese characters according to the shape characteristics of the numbers 0 to 9. The mouths are: 0 is a point (,), a box (port), a full bracket; 1 is a vertical ( 2 is double (2, 'j, 2); 3 is more (three, small); 4 is 捺 (L), cross (female); 5 is skein (幺); 6 is semi-enclosed (" ), turn left (δ); 7 is fold (1); 8 is symmetrical about top, bottom, left and right; 9 is 撇 (J), turn right (ΰ).

The symbols of the first and second lines in Table 18 and the Chinese characters correspond to the numbers 0 to 9, respectively. When a single number is pressed, the corresponding Chinese character can be input. If you press 7, you can directly input "羊".

As an alternative to the Chinese image input method, when the parallel cooperative processing device of the present invention enters the Chinese image input method mode, the method of using the layout first, the partial after the shift scaling and the rotating scaling is used. According to the structural characteristics of the Chinese characters, the numeric keys indicating the characteristics of the structure are pressed. For example, when the Chinese character is a single character, the 1 key can be pressed, when the Chinese character is the left and right structure, the 2 key can be pressed, and when the Chinese character is the left middle right structure, the 3 can be pressed. The correspondence between the structure and the number of Chinese characters can be arbitrarily set as needed. In the second step, the components that make up the Chinese characters (sides, radicals, etc.) are input. In the third step, the unit cooperative processing device combines the components of the input Chinese characters and constructs and outputs the Chinese characters.

Here, the Chinese text information can also be stored in the external memory of the unit cooperative processing device by means of a digital article, and at the same time, the matched digital article is retrieved through the digital group corresponding to the keyword. The principle and method can refer to the English part above. <About Japanese Hiragana>

The correspondence between the numbers 0 to 9 and the Japanese hiragana is shown in Table 21.

Table 21

In Table 21, the symbol '3⁄4' indicates that the number 6 is used to rotate the character 90 degrees clockwise. The symbol "ΰ" indicates that the number 9 is used to rotate the character by 90° counterclockwise, and the symbol '" indicates that the number 8 is used to mirror the character. display.

When the parallel cooperative processing device of the present invention enters the Japanese hiragana input mode, its input method can refer to Table 21, and the usage of Table 21 is the same as that of Table 19. For example, when the user needs to input, press the number key 1; when input is required, enter the number key 52; when you need to input " ", press the number key 49. Other hiragana input methods can be deduced by analogy. It should be noted that the contents of Table 21 are merely exemplary and are not limited thereto. The present invention can be applied as long as it is a scheme that enables the user to easily associate the number with the hiragana image.

Here, the text information of the Japanese hiragana may be stored in the external memory of the unit co-processing device by means of a digital article, and the matched digital article is retrieved by the digital group corresponding to the keyword. The principle and method can refer to the English part above.

The above detailed description is intended to be illustrative of a preferred embodiment of the present invention, and is not intended to limit the scope of the present invention. Modifications are intended to be included in the scope of protection covered by the present invention.

Claims

Rights request

1. A unit cooperative processing device, comprising:

a function unit, disposed at an outermost layer of the unit cooperative processing device and arranged with a function interface for performing human-computer interaction operation;

a private circuit having a first storage firmware, connected to the functional portion and having a driver corresponding to the functional portion stored in the storage firmware, and corresponding to the private circuit according to operation of the functional portion Signal

a shared circuit for use as a data transmission bus for data transmission between the internal and external units of the unit co-processing device;

An interface unit, connected to the shared circuit for providing a connection interface for the unit cooperative processing device;

An external memory, connected to the shared circuit and internally storing a virtual machine file and a virtual machine configuration table;

a memory, connected to the shared circuit for running a virtual machine;

a firmware memory, connected to the shared circuit and embedding a standardized identifiable code of the unit cooperative processing device and storing a micro operating system, the micro operating system providing a virtualized interface of the hardware and providing identification and generation of text and images Processing interface

a control unit, including at least one CPU, a ternary parallel cooperative processor for coordinating work of the CPU, at least one dual master cache corresponding to the at least one CPU, and the at least one dual master cache a dual secondary cache coupled to and coupled to the parallel coprocessor, coupled to the parallel coprocessor to connect the parallel coprocessor to a parallel cooperative cache of the shared circuit, wherein the parallel The coprocessor performs cooperative operation on the at least one CPU to exchange binary and ternary data between the dual secondary cache and the at least one dual primary cache, and the control unit Reading the micro-operating system and the standardized identifiable code into the memory, and dividing the memory into pages, and running a virtual machine on each page of the memory layer according to the virtual machine file.

2. The unit collaborative processing apparatus according to claim 1, wherein said parallel cooperative processor connects said at least one dual primary cache and said double secondary cache to a closed dual string by a control switch a buffer, at which time the parallel coprocessor selects one binary number each time from each string buffer of the dual string buffer, and converts the selected 2-bit binary number to 1 Bit ternary number.

3. The unit collaborative processing apparatus according to claim 1, wherein said parallel cooperative processor connects said at least one dual primary cache and said double secondary cache to a closed single string by a control switch The buffer, at this time, the parallel cooperative processor selects two adjacent binary numbers from the single string buffer each time, and converts the selected 2-bit binary number into a 1-digit ternary number.

The unit collaborative processing apparatus according to claim 1, wherein said parallel cooperative processor uses an optoelectronic chip that processes and transmits data by conversion between an electrical signal and an optical signal.

The unit cooperative processing apparatus according to claim 4, wherein a character engine is built in said micro-operation system, and said character engine generates and displays a character symbol through said optoelectronic chip.

The unit cooperative processing apparatus according to claim 1, wherein said parallel cooperative processor has a gravity sensing device built therein for sensing a body position of said unit cooperative processing device.

7. The unit collaborative processing apparatus according to claim 1, wherein said virtual machine file comprises a virtual machine operating system file, a virtual machine application file, and a virtual machine data file, wherein said virtual machine application file is embedded There are software license agreements and license numbers in a standardized unified format.

A parallel cooperative processing device, which is constituted by at least one unit cooperative processing device according to claim 1 by interconnection of interfaces between the two, and according to at least one unit, the connection state and the position and the position of the device are coordinated. The standardized identifiable code is used to determine the mode in which the parallel collaborative processing device is currently located.

The parallel cooperative processing apparatus according to claim 8, wherein the interface unit of the different unit cooperative processing device is connected by a connection unit.

10. The parallel collaborative processing apparatus according to claim 8, wherein two or more unit cooperative processing apparatuses are connected by a magic board binding method, and the two or more unit cooperative processing apparatuses change each other in a bound state. The connection and position between the interface parts.

A working method of a parallel cooperative processing device, wherein the parallel cooperative processing device is constituted by at least one unit cooperative processing device according to claim 1 through interconnection of interfaces between each other, characterized in that The method includes the following steps:

Each unit cooperating device reads the respective micro operating system and the standardized identifiable code into their respective memories;

Each unit collaborative processing device separately performs hardware detection through the micro operating system, and simultaneously senses each Self-position

And each unit of the cooperative processing device exchanges the respective standardized identifiable codes by a predetermined protocol according to the hardware detection result, and updates the accepted standardized identifiable code to its own allocation table;

Each unit collaborative processing device combines the respective micro-operating systems into an integrated environmental system in a point-to-point connection manner;

The environment system compares the hardware detection result and the sensed body position and the updated standardized identifiable code with a virtual machine configuration table, and determines a current mode of the parallel collaborative processing device according to the comparison result. ;

According to the judgment result of the mode, the environment system runs the corresponding virtual machine file to activate the virtual machine corresponding to the feature.

The working method of the parallel cooperative processing device according to claim 11, wherein the step of performing hardware detection by the micro-operating system of each unit cooperative processing device is: reading the driver corresponding to the respective functional portion The interface table is updated by detecting the interface and detecting the interface part participating in the connection.

A character processing method of a parallel cooperative processing device, wherein the parallel cooperative processing device is constituted by at least one unit cooperative processing device according to claim 1 by interconnection of interface portions between each other, characterized in that The method includes the following steps:

Enter the number corresponding to the text to be entered;

Generating a hardware word encoding instruction based on the entered number;

A character engine built into the micro operating system generates text through the parallel coprocessor according to the hardware word encoding instructions.

The character processing method of the parallel cooperative processing device according to claim 13, wherein the parallel cooperative processor comprises a light emitting unit, an image converting unit and a light receiving unit, wherein the hardware word encoding instruction includes character information, Root information and root area information.

The character processing method of the parallel collaborative processing device according to claim 14, wherein the process of generating text by the parallel cooperative processor comprises the following steps:

The character engine displays the corresponding character on the light emitting portion according to the character information; the character engine displays the light in the light according to the root information and the root region information. The character on the portion is converted into a radical by the image conversion unit and irradiated onto a predetermined region of the photosensitive portion; the photosensitive portion superimposes all the radicals of the predetermined region to generate a character.

The character processing method of a parallel cooperative processing device according to claim 15, wherein said image converting unit converts said character into a root by means of rotation, scaling, and mirror conversion.

The character processing method of the parallel cooperative processing device according to any one of claims 13 to 16, wherein when the text is English, the correspondence between the number and the English character is:

The character processing method of the parallel cooperative processing device according to any one of claims 13 or 16, wherein when the character is Korean, the correspondence between the number and the Korean character is:

Where the symbol " ϋ " indicates that the number 6 is used to rotate the character 90 degrees clockwise. The symbol "0" indicates that the number 9 is used to rotate the character 90° counterclockwise, and the symbol "represents the number 8 is used to mirror the character symmetrically.

19. A software testing method for a unit collaborative processing apparatus according to claim 1, wherein the method comprises the steps of:

Copying the tested virtual machine with the tested software and the test virtual machine with the test software to the unit collaborative processing device through the interface portion of the unit cooperative processing device;

The operating system associates and runs the tested virtual machine and the test virtual machine;

The test software on the test virtual machine invokes a character reverse operation interface provided by the micro operating system, and identifies and separates the quilt from the display memory of the tested virtual machine of the unit collaborative processing device. Testing image information of the operating state in the software;

The tested software is operated by an interface associated between the test virtual machine and the tested virtual machine, and the test software running on the test virtual machine is generated and generated on the test virtual machine. The virtual object and virtual object set corresponding to the entity object;

Using the character reverse operation interface provided by the micro operating system to identify the text information in the entity object and the dual display memory area provided by the virtual machine, thereby operating and recording through different arrangement and combination Tested software;

The test software stores the test results in a test result file for use in determining and confirming.

20. A three-dimensional image display method for a unit cooperative processing apparatus according to claim 1, wherein said unit cooperative processing apparatus comprises two CPUs and two dual master caches corresponding to the two CPUs, characterized in that The method comprises the steps of:

The micro operating system of the unit collaborative processing device provides an image for generating a three-dimensional image to the three-dimensional display virtual machine according to the three-dimensional image processing interface;

The three-dimensional display virtual machine generates two two-dimensional virtual images after performing three-dimensional effect processing on the image for generating a three-dimensional image, and two two-dimensional virtual image data corresponding to two two-dimensional virtual images are respectively stored in two Two two-dimensional virtual display memory on the two-dimensional virtual screen. At this time, according to the cooperative operation of the two CPUs by the parallel cooperative processor, each CPU processes one of the two-dimensional virtual image data separately;

Reading the two two-dimensional virtual image data in the two two-dimensional virtual display memories into the two dual main caches respectively, and passing between the two dual main caches Comparing and bit operations generate three-dimensional virtual image data in the dual cache of the unit co-processing device; the micro-operating system reads the three-dimensional virtual image data into a three-dimensional virtual display memory corresponding to the three-dimensional virtual screen Generating a three-dimensional virtual image on a three-dimensional virtual screen;

The micro operating system maps the three dimensional virtual image to a physical hardware display screen to display a three dimensional image.