Element odd spiral model, element chess and its manufacturing method

Abstract

The present invention relates to an odd spiral model of elements and its manufacturing method, an element chess and its manufacturing method, belonging to the field of chemistry. The manufacturing method of the odd spiral model of elements mainly includes: setting a group of blocks G(x, y), arranging the blocks G(x, y) to obtain a model body; setting the blocks G(x, y) that meet the first condition R as element blocks G R (x, y); the element blocks G R (x, y) are used to provide element active orbits that conform to the characteristics of the nuclear outer electron distribution; chemical parameters are set on the element blocks. The present invention obtains an odd spiral model of elements with a simple arrangement effect through a simple and automated technical means. The distribution of chemical elements in this model conforms to the law of nuclear outer electron orbits, provides scientific research, education and enlightenment tools with research value from multiple technical perspectives, improves the interest of chemical research and teaching, and promotes the technological progress in the fields of chemistry and physics.

Description

Technical Field

[0001] The present invention belongs to the technical field of basic chemistry, and particularly relates to an odd helix model of elements and its manufacturing method, an element chess and its manufacturing method, an electronic device, and a readable storage medium. Background Art

[0002] In the "Outline of Chemistry" published in 1789, the French chemist Lavoisier invented the first "Element Table" in history, classifying the then-known 33 elements into 4 categories. In 1863, the British chemist Odling published the "Table of Atomic Weights and Element Symbols", listing a total of 49 elements and leaving 9 vacancies. In 1858, Kekulé observed that carbon usually combines with other elements in a ratio of 1 to 4. For example, methane with 1 carbon atom and 4 hydrogen atoms, and this concept was later called valence. In 1865, the British chemist John Newlands classified 56 elements into 11 groups according to their properties and arranged them in ascending order of atomic weight. It was found that every 8 elements, the physical and chemical properties of the elements would repeat, and he called this law the "octave law". The Russian chemist Mendeleev arranged the elements horizontally or vertically by atomic weight in 1869, and started a new row when the element characteristics repeated, thus inventing the milestone element periodic table. By 1905, Werner had made the modern form of the element periodic table, but the real physical meaning of the atomic number was not yet known at that time. In 1913, the British physicist Moseley discovered that the atomic number in Mendeleev's periodic table was actually the nuclear charge number of the atom.

[0003] From the above background, it can be seen that the history of people's understanding of chemical elements is inseparable from the development history of the periodic table of elements. Every change in the element arrangement method can reveal different unknown laws of the then-known chemical elements, greatly changing people's understanding of the real laws of the element world, thus promoting the continuous progress of the atomic theory. An excellent periodic table of elements can even predict new chemical synthetic substances and explore new physical and chemical fields.

[0004] Mendeleev's periodic table of chemical elements includes a main table and a supplementary table. The main table is in an irregular rectangle shape, including 7 horizontal rows and 18 vertical columns. Among them, the 18 vertical columns include 16 groups, namely 7 main groups (alkali metals, alkaline earth metals, boron group, carbon group, nitrogen group, oxygen group, and halogen group), 7 sub-groups (scandium group, titanium group, vanadium group, chromium group, manganese group, copper group, and zinc group), 1 zero group, and 1 group 8 (including 3 columns). The supplementary table has 15 lanthanide elements and 15 actinide elements each, which are independent of the main table and are respectively squeezed into a long grid. Since Mendeleev's periodic table of elements can accurately predict the characteristics of various elements and the relationships between them, it is widely used in chemistry and other scientific fields and is a very useful framework for analyzing chemical behavior.

[0005] There are many different periodic tables, which can be summarized as follows: short-form table (represented by Mendeleev), long-form table (represented by Werner), special-form table (represented by Porta); plane spiral table and circular table (represented by Damkoff); three-dimensional periodic table (represented by Lacy's cone-cylinder three-dimensional table), etc. These known periodic tables all have irregular structures, and their source is still based on the profound influence of technical bias brought about by the long-term success of Mendeleev's periodic table in element arrangement technology.

[0006] The technical bias brought about by Mendeleev's periodic table includes solidifying the positional relationship between elements. In addition to leading to the invention of a large number of other irregular periodic tables, its complex arrangement of elements makes it difficult for students to remember the positional relationship between elements, periods and groups, which increases the difficulty of basic chemistry education and reduces the interest of chemistry teaching.

[0007] Just like Newton's law of universal gravitation and Einstein's mass-energy equation, the closer a model is to the basic principles of the universe, the simpler and more beautiful it should be. Currently, the field of chemistry lacks a simple, beautiful yet profound model for studying chemical elements to promote changes and progress in the basic theories of physics and chemistry.

[0008] The chemistry subject still lacks educational teaching aids or game software that can compare with chess, checkers, animal chess, go and other educational games. The existing chemistry teaching aids cannot be combined with entertainment activities, which makes our country lack effective technical tools for the chemistry enlightenment of young people. Summary of the invention

[0009] In view of the above deficiencies in the prior art, the present invention aims to provide an element odd spiral model and a method for making it, an element chess and a method for making it, so as to overcome the technical bias of the prior art in the field of chemistry, and obtain an element odd spiral model with a simple arrangement effect through a simple and automated technical means. The distribution of chemical elements in the model conforms to the law of electron orbits outside the atomic nucleus, and provides a scientific research, education and enlightenment tool with research value from multiple technical perspectives, reduces the difficulty of basic chemical education, improves the interest of chemical teaching, and promotes technological progress in the fields of chemistry and physics.

[0010] The first object of the present invention is to provide a method for making an element odd spiral model, comprising:

[0011] Set a group of blocks G(x,y), and arrange the blocks G(x,y) to obtain a model body; wherein,

[0012] The positive integer x is the main layer orbit number; the positive integer y is the sub-layer orbit number;

[0013] The block G(x,y) includes elemental blocks; setting a group of blocks G(x,y) includes setting elemental block G R (x,y); the method of setting elemental block G R (x,y) includes:

[0014] Setting the block G(x,y) that meets the first condition R as elemental block G R (x,y); wherein, the elemental block G R (x,y) is used to provide an elemental active orbit that conforms to the characteristics of the nuclear outer electron orbital distribution; the first condition R is {x = [1,N], y = [1,CEIL(x / 2)]}; CEIL is the ceiling function; N is 4, 5, 6, 7, 8, 9 or 10, representing the maximum value of the main layer orbital serial number;

[0015] Setting chemical parameters on the elemental block.

[0016] Further, the block G(x,y) further includes a reference block; setting a group of blocks G(x,y) further includes setting reference block G r (x,y); the method of setting reference block G r (x,y) includes,

[0017] Setting the block G(x,y) that meets the second condition r as reference block G r (x,y); wherein, the reference block G r (x,y) is used to provide a reference orbit corresponding to the elemental active orbit; the second condition r is {x = [1,N - 2], y = (CEIL(x / 2),CEIL(N / 2)]};

[0018] Arranging the block G(x,y) to obtain a model body includes:

[0019] Arranging the blocks with the same main layer orbital serial number x in ascending order of the y serial number to obtain sector S(x); based on x = [1,N], obtaining sectors S(1) to S(N);

[0020] The top view contour of the sector S(x) includes: two side edges and a bottom edge, and, a vertex or a top edge; wherein, the bottom edge is a straight line or an arc; the top edge is a straight line or an arc; the included angle between the two side edges, or the included angle between the extended lines of the two side edges, is 360 / N degrees;

[0021] Arranging sectors S(1) to S(N) counterclockwise in the same direction in sequence to obtain a model body, or, arranging sectors S(1) to S(N) clockwise in the same direction in sequence to obtain a model body.

[0022] Further, the outer contour of the top view profile of the model body is a regular N-sided polygon or a circle, preferably a regular N-sided polygon.

[0023] Further, the maximum value N of the main layer track number is 8.

[0024] Further, the setting of a group of blocks G(x, y) further includes: setting 2y - 1 base cells or 2×(2y - 1) small base cells on the block G(x, y), preferably setting 2y - 1 base cells on the block G(x, y); the base cells are used to provide the electron orbit positions on the block G(x, y), and the number of 2y - 1 base cells is equal to the number of electron orbits on the block G(x, y); the number of 2×(2y - 1) small base cells is equal to the number of electrons on the block G(x, y).

[0025] Further, the setting of chemical parameters on the element block includes:

[0026] On the element block G R (x, y), setting chemical element markers for 2×(2y - 1) chemical elements; where

[0027] The chemical element markers are used to provide active elements that conform to the characteristics of the electron distribution outside the atomic nucleus, including the name of the chemical element, the phase diagram, the atomic number, and / or the electron orbit parameters;

[0028] The atomic numbers of the 2×(2y - 1) chemical elements are consecutive;

[0029] On the element block G R (x, y), setting chemical element markers for 2×(2y - 1) chemical elements starting with Z R (x, y); where

[0030] The starting atomic number Z R (x, y) of the element block G R (x, y) is

[0031] 。

[0032] Further, the setting of chemical parameters on the element block includes:

[0033] On the element block G R (x, y), setting an active orbit code; where

[0034] The active orbit code is used to provide the position of the active electron orbit outside the nucleus corresponding to the active orbit of the element; the active orbit code is U R (x, y):

[0035] U R (x,y) = strval(x - y + 1)u y or U R (x,y) = strval(x - y + 1)u y 2(2y-1) ;

[0036] In the formula, the strval( ) function is used to obtain the string value of the variable, and the active orbital u y = {s| y=1 , p| y=2 , d| y=3 , f| y=4 , g| y=5}, where s, p, d, f, and g are the names of the extranuclear electron orbits;

[0037] Furthermore, set the element block G R (x,y) has the starting atomic number increased by 2[CEIL(x / 2)] R compared to the element block G 2 numbers;

[0038] Set the element block G R (x,y) has the starting atomic number decreased by 2y R compared to the element block G 2 - 2 numbers.

[0039] The second object of the present invention is to provide a method for making an element chess, which further includes on the basis of the method for making the element odd spiral model:

[0040] Set 2y - 1 basic grids in the block G(x,y); the basic grids are used to provide the electron orbital positions and the chess - playing positions on the block G(x,y); the number of 2y - 1 basic grids is equal to the number of electron orbits on the block G(x,y);

[0041] Set the model body as the chessboard, which is used to provide the chessboard and the chess - playing positions; the chess - playing positions include the intersection points of the boundary lines of the basic grids, the center point of the model body, and / or the internal area of the basic grids;

[0042] Set element chess pieces, which are used to play chess and demonstrate the active orbits on the model body.

[0043] Furthermore, the element chess pieces include the first chess pieces;

[0044] The number of the first chess pieces is consistent with the total number of electron orbits of all the element blocks G R (x,y) in the model body, and is pieces;

[0045] The first chess piece preferably includes:

[0046] (2y - 1)[N - 2(y - 1)]| y=[1,CEIL(N / 2)] (2y - 1) chess pieces with a regular 2y - 1 - gon shape, used for playing chess and demonstrating the active orbit u y ; where u y ={s| y=1 , p| y=2 , d| y=3 , f| y=4 , g| y=5}}, where s, p, d, f, and g are the names of the nuclear - outer electron orbits; when y = 1, the chess piece has a circular shape; the number of sides 2y - 1 is equal to the number of electron orbits within the active orbit u y ;

[0047] The first chess piece includes two chess pieces with different main colors, preferably chess pieces with different main colors on both sides; the two different main colors are used to distinguish the chess pieces of different players.

[0048] The third object of the present invention is to provide an element odd - helix model manufactured by a manufacturing method based on the element odd - helix model, including:

[0049] A model body, including a block G(x, y), for providing element evolution demonstration; the block G(x, y) includes element blocks; chemical parameters are set on the element blocks.

[0050] The fourth object of the present invention is to provide an element chess manufactured by a manufacturing method based on the above - mentioned element chess, including:

[0051] A model body, including a block G(x, y), for providing a chessboard and the positions for playing chess, and for providing element evolution demonstration; the positions for playing chess include the intersection points of the boundary lines of the basic grids, the center point of the model body, and / or the internal area of the basic grids; the block G(x, y) includes element blocks;

[0052] Chemical parameters are set on the element blocks;

[0053] Element chess pieces, used for playing chess on the model body and demonstrating the active orbit.

[0054] The fifth object of the present invention is to provide an electronic device, including:

[0055] A memory, for storing a computer program;

[0056] A processor, for executing the computer program in the memory to implement the operation steps of the manufacturing method.

[0057] The sixth object of the present invention is to provide a computer-readable storage medium, on which a computer program is stored, and when the computer program is executed by a processor, the operation steps of the manufacturing method are realized.

[0058] The beneficial effects of the present invention are as follows:

[0059] The present invention provides an odd spiral model of elements and its manufacturing method, an element chess and its manufacturing method, which overcome the technical prejudice in the prior art in the chemical field for a long time. Through a simple and automated technical means, an odd spiral model of elements with a simple arrangement effect is obtained. The distribution of chemical elements in this model conforms to the law of the electron orbit outside the atomic nucleus, providing a scientific research, education and enlightenment tool with research value from multiple technical perspectives, reducing the difficulty of basic chemistry education, improving the interest of chemistry teaching, and promoting the technological progress in the fields of chemistry and physics. BRIEF DESCRIPTION OF THE DRAWINGS

[0060] The drawings are only for the purpose of showing specific embodiments, and are not considered as a limitation of the present invention. Throughout the drawings, the same reference signs denote the same components.

[0061] Figure 1 Several optional top views of block G(x, 1) in an embodiment of the present invention;

[0062] Figure 2 Several optional top views of block G(x, 3) in an embodiment of the present invention;

[0063] Figure 3 Several optional top views of block G(x, 4) in an embodiment of the present invention;

[0064] Figure 4 Several optional top views of sector S(x) in an embodiment of the present invention;

[0065] Figure 5 A top view of an optional model body in an embodiment of the present invention;

[0066] Figure 6 Several optional side sectional views of sector S(x) in an embodiment of the present invention;

[0067] Figure 7 A top view effect diagram of an optional model body in an embodiment of the present invention;

[0068] Figure 8 A schematic diagram of an element chess piece in a basic grid in an embodiment of the present invention;

[0069] Figure 9 A hardware structure block diagram of a mobile terminal in an embodiment of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0070] The preferred embodiments of the present invention will be specifically described below with reference to the accompanying drawings. The accompanying drawings form a part of the present invention and are used together with the embodiments of the present invention to explain the principles of the present invention, rather than to limit the scope of the present invention.

[0071] Embodiment 1

[0072] A specific embodiment of the present invention discloses a method for making an element odd spiral model, which is characterized by including:

[0073] Setting a group of blocks G(x, y), and arranging the blocks G(x, y) to obtain a model body; where

[0074] The positive integer x is the main layer orbital serial number; the positive integer y is the sub-layer orbital serial number;

[0075] The block G(x, y) includes an element block; the setting of a group of blocks G(x, y) includes setting the element block G R (x, y); the method for setting the element block G R (x, y) includes:

[0076] Setting the block G(x, y) that meets the first condition R as the element block G R (x, y); where the element block G R (x, y) is used to provide an element active orbital that conforms to the characteristics of the electron orbital distribution outside the atomic nucleus; the first condition R is {x = [1, N], y = [1, CEIL(x / 2)]}; CEIL is the ceiling function; N is 4, 5, 6, 7, 8, 9 or 10, representing the maximum value of the main layer orbital serial number;

[0077] Setting chemical parameters on the element block.

[0078] The block G(x, y) further includes a reference block; the setting of a group of blocks G(x, y) further includes setting the reference block G r (x, y); the method for setting the reference block G r (x, y) includes,

[0079] Setting the block G(x, y) that meets the second condition r as the reference block G r (x, y); where the reference block G r (x, y) is used to provide a reference orbital corresponding to the element active orbital; the second condition r is {x = [1, N - 2], y = (CEIL(x / 2), CEIL(N / 2)]}.

[0080] Preferably, the step of setting a group of blocks G(x, y) further includes: setting 2y - 1 base cells or 2×(2y - 1) small base cells on the block G(x, y), preferably setting 2y - 1 base cells on the block G(x, y); the base cells are used to provide the electron orbital positions on the block G(x, y), and the number of the 2y - 1 base cells is equal to the number of electron orbits on the block G(x, y); the number of the 2×(2y - 1) small base cells is equal to the number of electrons on the block G(x, y).

[0081] Preferably, x = [1, N], y = [1, CEIL(N / 2)], and the block G(x, y) includes blocks G(1, 1) to G(N, CEIL(N / 2)).

[0082] Preferably, when x = [1, N], the N blocks G(x, 1) have the same or similar shapes, the N blocks G(x, 2) have the same or similar shapes, and so on until the N blocks G(x, CEIL(N / 2)) have the same or similar shapes.

[0083] Preferably, the group of blocks can be presented as a whole, or divided into several wholes, and / or the blocks are presented independently.

[0084] Preferably, the presentation forms of the group of blocks include physical entities, computer virtual models, pictures, and / or patterns.

[0085] Preferably, a block G(x, y) can be presented as a whole, or a combination of 2y - 1 base cells or a combination of 2(2y - 1) small base cells. The combination methods of the base cells can include planar connection and / or three-dimensional connection, and can also include fitting connection, shaft connection, plug-in connection, and / or magnetic connection.

[0086] Preferably, the connection methods between the blocks can include planar connection and / or three-dimensional connection, and can also include fitting connection, shaft connection, plug-in connection, and / or magnetic connection.

[0087] Preferably, N is 8.

[0088] Next, taking N = 8 as an example, a specific exemplary implementation is introduced.

[0089] When N = 8, the group of blocks includes blocks G(1, 1) to G(8, 4).

[0090] When x = [1, 8], the eight blocks including G(1, 1) to G(8, 1) have the same or similar shapes, the eight blocks including G(1, 2) to G(8, 2) have the same or similar shapes, the eight blocks including G(1, 3) to G(8, 3) have the same or similar shapes, and the eight blocks including G(1, 4) to G(8, 4) have the same or similar shapes.

[0091] Preferably, several optional top views of the block G(x, 1) are shown as Figure 1 (1) to (6). The top view contour of the block G(x, 1) includes: two side edges and one bottom edge, and, one vertex or one top edge; wherein, the bottom edge is a straight line or an arc; the top edge is a straight line or an arc; the included angle between the two side edges, or the included angle between the extended lines of the two side edges, is 360 / N degrees.

[0092] Preferably, when N is 8, the included angle is 45 degrees.

[0093] The block G(x, 1) can be presented as a whole base cell, as shown in Figure 1 (1) to (5), or can also be a combination of 2 small base cells, as shown in Figure 1 (6).

[0094] Preferably, the top view contour of the block G(x, 2) includes: two side edges, one bottom edge and one top edge; wherein, the bottom edge is a straight line or an arc; the top edge is a straight line or an arc; the included angle between the extended lines of the two side edges is the same as the included angle of G(x, 1).

[0095] The block G(x, 2) can be presented as a whole, or can also be a combination of 3 base cells or a combination of 6 small base cells.

[0096] Preferably, several optional top views of the block G(x, 3) are shown as Figure 2 (1) to (4). The top view contour of the block G(x, 3) includes: two side edges, one bottom edge and one top edge; wherein, the bottom edge is a straight line or an arc; the top edge is a straight line or an arc; the included angle between the extended lines of the two side edges is the same as the included angle of G(x, 1).

[0097] The block G(x, 3) can be presented as a whole, as shown in Figure 2 (1), or can also be a combination of 5 base cells, as shown in Figure 2 (2) to (3), or a combination of 10 small base cells, as shown in Figure 2 (4).

[0098] Preferably, as Figure 3Several optional top - view schematic diagrams of the block G(x,4) shown in (1) to (4). The top - view contour of the block G(x,4) includes: two side edges, a bottom edge, and a top edge; wherein, the bottom edge is a straight line or an arc; the top edge is a straight line or an arc; the included angle between the extension lines of the two side edges is the same as the included angle of G(x,1).

[0099] The block G(x,4) can be presented as a whole, as shown in Figure 3 (1) and (3), or it can be a combination of 7 basic cells, as shown in Figure 3 (2) and (4), or a combination of 14 small basic cells.

[0100] When taking a physical entity as an example, the above - mentioned scheme can be implemented as an example of a method for making a combinatorial model that can be freely spliced in units of blocks, or as an example of a method for making a combinatorial model that can be freely spliced in units of basic cells or small basic cells.

[0101] Preferably, when N = 8, the element blocks are blocks that meet {x = [1,8], y = [1,4]}, including: G(1,1), G(2,1), G(3,1), G(3,2), G(4,1), G(4,2), G(5,1), G(5,2), G(5,3), G(6,1), G(6,2), G(6,3), G(7,1), G(7,2), G(7,3), G(7,4), G(8,1), G(8,2), G(8,3), and G(8,4);

[0102] In addition, the blocks G(1,2), G(1,3), G(1,4), G(2,2), G(2,3), G(2,4), G(3,3), G(3,4), G(4,3), G(4,4), G(5,4), and G(6,4) are corresponding blocks that meet the second condition r as {x = [1,6], y=(CEIL(x / 2),4)}.

[0103] A distribution of the element blocks and the corresponding blocks in the model body can be seen in Figure 5 the top - view schematic diagram of a model body shown.

[0104] It should be noted that the presentation form of the basic cells or small basic cells shown in the drawings of the present invention is not limited to the styles of the cells within the blocks shown in the schematic diagrams. The range of the occupied space of each chemical element set within the block can represent the range of a small basic cell, and the range of the occupied space of two adjacent chemical elements within the block can represent the range of a basic cell.

[0105] The advantages of the above embodiments are as follows. By means of setting the block G(x,y) and setting the first condition R, the technical effect of setting chemical elements in a simple and automatically describable model state space is achieved. An especially unexpected technical effect brought by this embodiment is that the distribution of the block G R (x,y) that meets the first condition R conforms to the distribution characteristics of the electron orbits outside the atomic nucleus. For this technical effect, please refer to Embodiment 3 for details.

[0106] Embodiment 2

[0107] Based on the above embodiments, arranging the block G(x,y) to obtain a model body may specifically include the following methods.

[0108] Arrange the blocks with the same main layer orbital number x in ascending order of the y number to obtain the sector S(x); based on x = [1,N], obtain the sectors S(1) to S(N).

[0109] As Figure 4 shown are several optional top-down schematic views of the sector S(x) when N = 8.

[0110] Among them, Figure 4 (1) shows an optional top-down schematic view of the arrangement of the blocks G(x,1) to G(x,4) where one block G(x,y) can be presented as a whole; Figure 4 (2) and (3) show an optional top-down schematic view of the arrangement of the blocks G(x,1) to G(x,4) where one block G(x,y) can be presented as a combination of 2y - 1 basic grids; Figure 4 (4) shows an optional top-down schematic view of the arrangement of the blocks G(x,1) to G(x,4) where one block G(x,y) can be presented as a combination of 2(2y - 1) small basic grids.

[0111] The top-down contour of the sector S(x) includes: two side edges, a bottom edge, and a vertex or a top edge; among them, the bottom edge is a straight line or an arc; the top edge is a straight line or an arc; the included angle between the two side edges, or the included angle between the extension lines of the two side edges, is 360 / N degrees;

[0112] Preferably, when N is 6, the included angle is 60°; when N is 8, the included angle is 45°.

[0113] Arrange the sectors S(1) to S(N) counterclockwise in the same direction in sequence to obtain the model body,

[0114] or arrange the sectors S(1) to S(N) clockwise in the same direction in sequence to obtain the model body;

[0115] The outer contour of the top view of the model body is preferably a regular N-sided polygon or a circle.

[0116] Preferably, when N = 8, it may have a top view schematic diagram of an optional model body as shown in Figure 5 The middle sector S(1) to S(8) are arranged counterclockwise in the same direction in sequence, and the outer contour of the top view of its model body is a regular octagon. Figure 5

[0117] Exemplarily, the model body can be presented as an independent entity.

[0118] Exemplarily, the sectors S(1) to S(N) can be presented as a whole, or can be divided into several independent entities for presentation, or each sector can be presented independently.

[0119] Exemplarily, the presentation forms of the sectors S(1) to S(N) include physical entities, computer virtual models, pictures and / or patterns. The pictures include physical entity pictures or computer pictures.

[0120] Exemplarily, the connection methods between the sectors can include planar connection and / or three-dimensional connection, and can also include fitting connection, shaft connection, plug-in connection and / or magnetic connection.

[0121] Preferably, when N = 8, sectors S(1) to S(4) are presented as a whole, and sectors S(5) to S(8) are presented as a whole, and these two wholes are connected in a shaft connection manner. This solution can be used as an optional embodiment of a foldable and portable combined model manufacturing method.

[0122] Exemplarily, when N = 8, sectors S(1) to S(8) are presented independently, and each of these 8 sectors can be provided with a connecting member, and can be connected in a fitting connection, shaft connection, plug-in connection and / or magnetic connection manner. This solution can be used as an optional embodiment of a combined model manufacturing method that can be freely spliced with sectors as units.

[0123] Exemplarily, Figure 6 (1) to (2) show several optional three-dimensional structure side view sectional schematic diagrams of sector S(x). Figure 6 In the middle, blocks G(x,1) to G(x,4) are presented in an integral connection form. Among them, Figure 6 (1) shows the stepped structure that the sector can have, Figure 6 (2) shows the flat plate structure that the sector can have.

[0124] It should be noted that in the physical entity embodiments of the present invention that require connecting members, the schematic diagrams omit structures such as connecting members and hollowed-out areas.

[0125] ​The advantages of the above embodiments are that while providing a method for manufacturing an odd-spiral model of elements, the product embodiments based on the method embodiments can be made more suitable for various different application scenarios. For example, taking physical entities or computer models as embodiments, in the application scenario of school subject teaching, a stepped structure model body with a three-dimensional hierarchical structure can be selected to enhance the sense of hierarchy in displaying the element distribution; in research or teaching scenarios, an embodiment of a module combination model with sectors or blocks as units can be selected, and users can freely assemble and splice each module to learn the evolution laws of existing elements and promote the discovery of more unknown laws, which has a certain degree of interest; when considering the portability of physical entities, a foldable combination model embodiment can be used for convenient carrying; if applied in scenarios such as chess-playing or sports, a flat or graphical model embodiment can be selected; if applied in the game software scenario, an immersive three-dimensional model or a graphical flat model embodiment can be selected.

[0126] Embodiment 3

[0127] Based on Embodiment 1 and / or 2, the method for manufacturing an odd-spiral model of elements may further include the following methods.

[0128] On the element block G R (x, y), set chemical element markings for 2×(2y - 1) kinds of chemical elements; wherein, the chemical element markings are used to provide active elements conforming to the characteristics of the nuclear outer electron distribution, including the name of the chemical element, the phase diagram, the atomic number, and / or the electron orbital parameters;

[0129] The atomic numbers of the 2×(2y - 1) kinds of chemical elements are consecutive; on the element block G R (x, y), set chemical element markings for 2×(2y - 1) kinds of chemical elements starting from the atomic number Z R (x, y); wherein, the starting atomic number Z R (x, y) of the element block G R (x, y) is

[0130] .

[0131] Based on Embodiment 1 and / or 2, the method for manufacturing an odd-spiral model of elements may further include the following methods.

[0132] On the element block G R (x, y), set an active orbital code; wherein,

[0133] The active orbital code is used to provide the nuclear outer electron active orbital position corresponding to the element active orbital; the active orbital code is U R (x, y):

[0134] U R (x,y) = strval(x - y + 1)u y or U R (x,y) = strval(x - y + 1)u y 2(2y-1) ;

[0135] In the formula, the strval( ) function is used to obtain the string value of the variable, and the active orbital u y = {s| y=1 , p| y=2 , d| y=3 , f| y=4 , g| y=5}}, where s, p, d, f, and g are the names of the nuclear outer electron orbits;

[0136] On the element block G R (x,y), chemical element markers of 2×(2y - 1) chemical elements are set; among them,

[0137] The chemical element markers are used to provide active elements that conform to the characteristics of the nuclear outer electron distribution, including the name, state diagram, atomic number, and / or electron orbital parameters of the chemical elements;

[0138] The atomic numbers of the 2×(2y - 1) chemical elements are consecutive;

[0139] Set the starting atomic number of G(1,1) to 1.

[0140] Set the element block G R (x,y) to have a starting atomic number 2[CEIL(x / 2)] R more than that of the element block G 2 (x - 1,y); set the element block G R (x,y) to have a starting atomic number 2y R - 2 less than that of the element block G 2 (x,1).

[0141] Preferably, the chemical element markers of every two chemical elements are set in one base cell, or the chemical element markers of each chemical element are set in one small base cell.

[0142] Preferably, when N = 8, the starting atomic number, the contained atomic numbers, and the active orbital codes of the element block based on the calculation results of the foregoing formula are shown in Table 1. Based on the technical implementation effects in Table 1, it can be seen Figure 7 the top - view effect schematic diagram of an optional model body shown.

[0143] Table 1 Calculation result table of the element block when N = 8

[0144] 。

[0145] Exemplarily, when N = 10, sector S(9) has 5 elemental blocks, namely block G(9,1) to block G(9,5), containing atomic numbers from 121 to 170; sector S(10) has 5 elemental blocks, namely block G(10,1) to block G(10,5), containing atomic numbers from 171 to 220.

[0146] The advantages of the above method are as follows: In this embodiment, by setting a group of blocks G(x,y), and setting chemical element labels of 2×(2y - 1) chemical elements with Z R (x,y) as the starting atomic number on the elemental blocks therein, for any currently known chemical element (atomic numbers 1 to 118) and chemical elements to be discovered in the future (unknown elements with atomic numbers greater than 118), the arrangement positions of the elements can be set quickly and automatically; for any elemental block, the elements set thereon can be quickly determined by the method disclosed in this embodiment. This embodiment changes the technical prejudice of arranging elements manually and irregularly based on the experimental phenomena of elements observed by humans, and solves the technical problem of lacking a simple and regular technical model for automatically arranging and demonstrating elements. The setting of the elemental blocks in the present invention achieves the technical effect of corresponding the element distribution to the orbital characteristics of the electrons outside the atomic nucleus one by one.

[0147] Particularly unexpected technical effect is that: the group of chemical elements arranged in each elemental block by the method of setting elements with Z R (x,y) happens to have the outermost electrons of the atoms of this group of chemical elements active in the same electron orbit. For example: the active orbit code U R (7,2) of elemental block G(7,2) is 6p 6 , and the outermost electrons of all elements with atomic numbers 81, 82, 83, 84, 85, 86 on elemental block G(7,2) are exactly all in the 6p 6 orbit, as shown in Table 2. Similarly, the outermost electrons of all elements in elemental block G(6,2) are exactly all in the 5p 6 orbit, and the outermost electrons of all elements in elemental block G(5,2) are exactly all in the 4p 6Orbit. The distribution of elements in the element odd spiral model produced based on the method described in this embodiment conforms to the Pauli exclusion principle, the minimum energy principle and Hund's rule. It is currently known that the extranuclear electron orbits are divided into multiple energy levels, and the high-energy level orbits have several sub-orbitals. The element odd spiral model produced by this method presents the technical effect of odd spiral distribution. For example, the corresponding blocks of 5s, 5p, 5d and 5f orbital distribution are G(5,1), G(6,2), G(7,3) and G(8,4), and the number of orbits represented by the base grids are 1, 3, 5 and 7 respectively, showing the technical characteristics of odd spiral distribution on the model.

[0148] Table 2 The electron configuration of the elements in the element block G(7,2)

[0149] .

[0150] By comparing the test data of the extranuclear electron configuration of known chemical elements with the odd-numbered spiral model, it was found that in a few element blocks, one electron in the extranuclear electrons of some elements had an electron orbital leap. This phenomenon of extranuclear electron configuration leap cannot be highlighted under the guidance of the existing technology that arranges elements based on experimental phenomena. However, the element blocks of this model have been transformed by Z R The arrangement demonstration of the method of automatically setting elements by (x, y) highlights the abnormal problems of the existing experimental data of individual elements in the element block. The demonstration effect of the odd-numbered spiral model of the present invention will promote people's understanding of atoms and promote the progress of theoretical research.

[0151] Example 4

[0152] Based on the same inventive concept, the present invention also discloses a method for making element chess, which, on the basis of the aforementioned method for making the element odd spiral model, further comprises:

[0153] 2y-1 base grids are set in the block G(x,y); the base grids are used to provide the electron orbital positions and chess positions on the block G(x,y); the number of 2y-1 base grids is equal to the number of electron orbits on the block G(x,y);

[0154] The model body is set as a chessboard to provide a chessboard and chess positions; the chess positions include the intersection of the boundary lines of the base grid, the center point of the model body and / or the internal area of ​​the base grid;

[0155] Set element chess pieces for playing chess and demonstrating active tracks on the model body.

[0156] The element chess pieces include a first chess piece;

[0157] The number of the first chess pieces and the total number of element blocks G in the model body RThe total number of electron orbits (i.e., the primitive lattice) of (x,y) is the same, which is pieces;

[0158] The first chess piece includes: (2y - 1)[N - 2(y - 1)]| y=[1,CEIL(N / 2)] pieces of chess pieces with a regular (2y - 1)-gon, used for playing chess and demonstrating the active orbit u y ;

[0159] where u y ={s| y=1 , p| y=2 , d| y=3 , f| y=4 , g| y=5}, where s, p, d, f, and g are the names of the electron orbits outside the nucleus; when y = 1, the chess piece has a circular shape; the number of sides 2y - 1 is equal to the number of electron orbits in the active orbit u y inside.

[0160] The first chess piece includes two chess pieces with different main colors, preferably chess pieces with different main colors on both sides; the two different main colors are used to distinguish the chess pieces of different players.

[0161] The element chess piece may further include several second chess pieces for playing chess;

[0162] The second chess piece includes two chess pieces with different main colors, preferably chess pieces with different main colors on both sides.

[0163] Exemplarily, when N = 8, y = [1, 4], the element chess pieces obtained based on the above method include 60 first chess pieces:

[0164] 8 circular chess pieces representing the active orbit s, 18 chess pieces with regular triangles representing the active orbit p, 20 chess pieces with regular pentagons representing the active orbit d, and 14 chess pieces with regular heptagons representing the active orbit f.

[0165] As Figure 8 shown is a schematic diagram of the element chess pieces in the primitive lattice, where there is 1 chess piece with a circular shape in the block G(x,1), 3 chess pieces with regular triangles in the block G(x,2), 5 chess pieces with regular pentagons in the block G(x,3), and 7 chess pieces with regular heptagons in the block G(x,4).

[0166] Preferably, one main color of the element chess piece is black and the other main color is white.

[0167] Preferably, half of the element chess pieces are of one main color and the other half are of the other main color.

[0168] Preferably, the element chess piece is a double-sided chess piece, with one side of the chess piece being one main color and the other side being another main color.

[0169] The advantages of this embodiment are as follows: The technical features of the chess pieces have the technical effect of demonstrating the extra-nuclear electron orbits, including: The number of the first chess pieces is equivalent to the number of the basic grids of all element blocks G R (x, y), and the number of these basic grids is equal to the number of extra-nuclear electron orbits; the number of sides 2y - 1 of the chess piece with a regular (2y - 1)-sided polygon is exactly the number of electron orbits represented by the active orbit u y The number of electrons that the active orbit u y can accommodate is twice the number of sides. These technical features are beneficial for teaching and research and for using the chess pieces for demonstration on the model body.

[0170] Embodiment 5

[0171] Based on the same inventive concept, the embodiment of the present invention also discloses an element odd spiral model, which includes:

[0172] A model body, including block G(x, y), for providing element evolution demonstration; the block G(x, y) includes element blocks; chemical parameters are set on the element blocks.

[0173] The presentation form of the block G(x, y) includes physical entities, computer virtual models, pictures, and / or patterns.

[0174] Among them, the technical features of the model body and the block have been specifically described in the manufacturing method of the element odd spiral model in Embodiments 1 to 3, and will not be elaborated in this embodiment. The implementation effect can be seen Figure 7 in the schematic top view effect diagram of an optional model body shown.

[0175] Preferably, the model body is presented in an integral form.

[0176] Preferably, the model body is presented in a combined form of N sectors.

[0177] Preferably, the model body is presented in a combined form of blocks G(x, y).

[0178] Preferably, the model body is presented in a combined form with 4 sectors as an integral whole.

[0179] The model body can also be presented in a combined form with several sectors as an integral whole; or in a combined form with several blocks as an integral whole; or in a combined form with several basic grids as an integral whole. The combined form can include planar connection and / or three-dimensional connection, and can also include fitting connection, shaft connection, plug-in connection, and / or magnetic connection.

[0180] Example 6

[0181] Based on the same inventive concept, the present invention also discloses an element chess, comprising:

[0182] A model body, including a block G(x,y), for providing a chessboard and a chess-playing position, and for providing an element evolution demonstration; the chess-playing position includes the intersection points of the boundary lines of the base grids, the center point of the model body, and / or the internal area of the base grid; the block G(x,y) includes element blocks;

[0183] Chemical parameters are set on the element blocks;

[0184] Element chess pieces, for playing chess and demonstrating active orbits on the model body.

[0185] The presentation forms of the block G(x,y) and the element chess pieces include physical entities, computer virtual models, pictures, and / or patterns.

[0186] Among them, the technical features of the model body, blocks, and element chess pieces have been specifically described in Examples 1 to 5, and will not be repeated in this example.

[0187] Example 7

[0188] Based on Example 6, this example presents several playing methods of the element chess. The non-technical content is for research only.

[0189] Chess pieces: There are 30 chess pieces of 2 groups of main color styles. Each group of main color style chess pieces includes 4 round chess pieces "round beetles", 9 regular triangular chess pieces "three beetles", 10 regular pentagonal chess pieces "five beetles", and 7 regular heptagonal chess pieces "seven beetles", as well as several common chess pieces. Each of the two players holds a group of chess pieces.

[0190] Chessboard: Use the model body with N being 8 as the chessboard. The center of the chessboard is the Taiji point, and the convergence points of the base grid side lines or the inside of the base grid are the chess points. The chess points are the chess-playing positions.

[0191] Playing method 1: Battle of Element Insects (using the inside of the base grid as the chess point)

[0192] 1. Story background: Two nests of "element insects" fight each other for resources. All kinds of insects try their best to suppress the other side. Finally, the brave side wins this insect war by eliminating the tenacious opponent.

[0193] 2. Chess placement stage:

[0194] The two sides take turns to place 1 of their own pieces on any empty chess point. When placing the pieces, the [Round Beetle] should be placed on an empty chess point within the [s orbit], the [Three Beetle] should be placed on an empty chess point within the [p orbit], the [Five Beetle] should be placed on an empty chess point within the [d orbit], and the [Seven Beetle] should be placed on an empty chess point within the [f orbit].

[0195] During the piece-placement stage, if the 4 pieces of one side are located in base grids that exactly form a large triangle, an attack is formed, and any 1 piece on the enemy's chessboard can be removed.

[0196] 3. During the moving stage, the two sides take turns to move one step, and can choose one of moving, attacking or air-raiding:

[0197] 1) [Moving] means that the piece crosses the boundary line of the base grid and enters an adjacent empty base grid.

[0198] 2) [Attacking] means that one's own piece launches an attack on the enemy piece in a certain diagonal base grid, that is, enters the diagonal chess point and removes the enemy piece.

[0199] 3) [Air-raiding] In the same sector, the Three Beetle can fly into any chess point within the same orbit in the p orbit. If there is an enemy piece in that chess point, the enemy piece can be directly eaten. Similarly, the Five Beetle can fly into any chess point within the same orbit in the d orbit, and the Seven Beetle can fly into any chess point within the same orbit in the f orbit and can directly eat the enemy piece. There can be no direct air-raiding between different sectors.

[0200] 4) [Besieging] After one's own piece moves or conducts an air raid, if the chess points adjacent to the 3 sides of the chess point where an enemy piece is located are all one's own pieces, then the enemy piece is trapped and removed from the chessboard.

[0201] 4. Determination of victory or defeat: One set consists of 1 piece each of the four types of pieces, including the [Round Beetle], the [Three Beetle], the [Five Beetle] and the [Seven Beetle]. There are the following ways to win:

[0202] 1) The side that eats 2 sets of enemy pieces first wins.

[0203] 2) The side that eats 2 types of enemy pieces first wins.

[0204] 3) The side that eats up all the enemy pieces wins.

[0205] Play Method 2: Element Beetle Dash (using the inside of the base grid and the Taiji point as chess points)

[0206] 1. Story background: Two nests of "element beetles" with the same number start from the "lair", follow the grids where the atomic numbers are located, and climb from the chess point where the 1st atom is located to the chess point where the 120th atom is located in the order of the atomic numbers, and finally enter the "Taiji point" to transform into "element butterflies" to win.

[0207] 2. Piece-placement stage:

[0208] Each of Party A and Party B has 1 to 3 chess pieces, and the number of chess pieces of both parties is the same.

[0209] Put them on any chess points in blocks G(1,2) and G(1,3), which are regarded as the lairs of the bugs here. Each party has another 7 extra chess pieces in hand.

[0210] 3. Chess moving stage:

[0211] 1) Party A selects an odd number, representing the side of the nuclear fusion bugs; Party B selects an even number, representing the side of the nuclear fission bugs.

[0212] 2) At the beginning of each round, each selects any number of chess pieces from the 7 chess pieces in their own hands and hides them in their hands. After both parties have hidden them, they show them to each other at the same time.

[0213] 3) If the "sum" of the number of chess pieces shown by both parties is an odd number (1 / 3 / 5 / 7 / 9 / 11 / 13), then Party A moves the chess; if it is an even number (2 / 4 / 6 / 8 / 10 / 12 / 14), then Party B moves the chess. If the sum is 0, repeat this step. The number of steps of moving the chess is the value of the "sum".

[0214] 4) When the elemental bug chess piece in the bug lair first appears on the field, jumping into block G(1,1) counts as the 1st step. After that, it moves along the grid where the atomic number is located in the order of the atomic number. Since there are two elements in each basic grid on the chessboard, it takes 2 steps to move out of a basic grid. However, if the elemental bug has stopped in a certain basic grid, then when it's the next turn to move the chess, it directly enters the next basic grid and counts as the 1st step, without taking another step in the original grid. If the two basic grids with adjacent atomic numbers are far apart on the chessboard, the elemental bug chess piece directly teleports to the target basic grid.

[0215] 5) When the bugs climb to the 8s orbital in the order of the atomic number and enter the Taiji point, no matter how many remaining steps there are, immediately stop this round, and the chess piece that enters the Taiji point represents a "nuclear reaction" and is taken out of the chessboard.

[0216] 6) Don't move the chess where there is no atomic number on the chessboard.

[0217] 4. Encounter rules:

[0218] 1) If the bugs of Party A and Party B stop in the same basic grid, the bug that stops in the basic grid first is driven back to the bug lair. If they just pass by, the original bugs cannot be driven away.

[0219] 2) If the bugs of the same family stop in the same basic grid, then in the next round, the two bugs can stack up and "fly together" and move once. After flying together once, turn the chess piece over to indicate that they have flown together. In the next round, they must move separately. If they stack up again after separation, repeat this step.

[0220] 5. Win - loss determination:

[0221] The side that takes out all the insects on its own side from the chessboard is the winning side.

[0222] One of the technical objectives of the present invention is to enable students to come into contact with relatively systematic chemical and physical knowledge while playing. The gameplay embodiments described above can be used as an enlightenment for students to learn chemistry. In addition, there are also gameplay beneficial to physical enlightenment, such as the element chess gameplay for enlightening nuclear fusion and fission knowledge, the element chess gameplay for enlightening the principles of light direct and refraction and long-wave and short-wave principles, and so on. Due to limited space, they will not be elaborated one by one here.

[0223] Embodiments of the present invention can be provided as a method, a system, or a computer program product. Therefore, the present invention can be implemented in the form of a complete hardware embodiment, a complete software embodiment, or an embodiment combining software and hardware aspects. In the embodiments, each module can be embedded in the processor in the electronic device in hardware form or be independent of the processor, or can be stored in the memory in the electronic device in software form so that the processor can call and execute the operations corresponding to each step / module of the embodiments. When the steps / modules are implemented in the form of software function instructions and sold or used as an independent product, they can also be stored in a computer-readable storage medium.

[0224] Embodiment 8

[0225] Based on the foregoing method embodiments, this embodiment provides an electronic device, including:

[0226] A memory for storing a computer program;

[0227] A processor for executing the computer program in the memory to implement each step of the foregoing method embodiments.

[0228] The electronic device embodiment and the method embodiment belong to the same inventive concept, solve the same technical problems, and achieve the same technical effects. The specific implementation steps have been described in detail in the method embodiments, and the same parts will not be elaborated again.

[0229] Optionally, the memory can be either independent or integrated with the processor. When the memory is independently provided, the device further includes a bus for connecting the memory and the processor.

[0230] The method and product embodiments provided by the present invention can be executed in a mobile terminal, a computer terminal, or a similar electronic device. Taking running on a mobile terminal as an example, Figure 9 is the hardware structure block diagram of the mobile terminal of the method embodiment of the present invention. As Figure 9 shown, the mobile terminal 10 may include one or more ( Figure 9A processor 102 (only one is shown in the figure) and a memory 104 for storing data. Optionally, the mobile terminal may further include a transmission device 106 for communication functions and an input / output device 108. Those of ordinary skill in the art can understand that Figure 9 The structure shown is only schematic and does not limit the structure of the above-mentioned mobile terminal. For example, the mobile terminal 10 may further include more or fewer components than Figure 9 those shown in the figure, or have a different configuration from Figure 9 that shown in the figure.

[0231] The processor may be a central processing unit (CPU), or may also be other general-purpose processors, digital signal processors (DSPs), application-specific integrated circuits (ASICs), field-programmable gate arrays (FPGAs), or other programmable logic devices, discrete gate or transistor logic devices, discrete hardware components, etc. The general-purpose processor may be a microprocessor or the processor may also be any conventional processor, etc. The above-mentioned processor is the control center of the device or related system, and connects various parts of the entire device through various interfaces and lines.

[0232] The memory can be used to store computer and mobile terminal programs and / or modules. The above-mentioned processor realizes various functions of the electronic device by running or executing the computer, mobile terminal programs and / or modules stored in the memory, and by calling the data stored in the memory, thereby implementing the embodiments of the present invention. The memory may mainly include a program storage area and a data storage area. Among them, the program storage area may store an operating system and computer programs required for at least one function; the data storage area may store data created according to the use of the system. In addition, the memory may include high-speed random access memory, and may also include non-volatile memory, such as a hard disk, a memory, a plug-in hard disk, a smart media card (SMC), a secure digital (SD) card, a flash memory device, or other volatile storage devices. The program for implementing any method or product of the embodiments of the present invention may be included in the computer and mobile terminal programs.

[0233] In some instances, the memory 104 may further include a memory remotely set relative to the processor 102, and the remote memory may be connected to the mobile terminal 10 through a network. Examples of the above-mentioned network include, but are not limited to, the Internet, an enterprise intranet, a local area network, a mobile communication network, and combinations thereof.

[0234] The transmission device 106 is used to receive or send data via a network. Specific examples of the aforementioned network may include a wireless network provided by the communication provider of the mobile terminal 10. In one example, the transmission device 106 includes a network adapter (Network Interface Controller, abbreviated as NIC), which can be connected to other network devices through a base station so as to communicate with the Internet. In one example, the transmission device 106 may be a Radio Frequency (RF) module, which is used to communicate with the Internet wirelessly.

[0235] Embodiment 9

[0236] Based on the same inventive concept, on the basis of the foregoing method embodiments, the embodiments of the present invention further provide a computer-readable storage medium, on which a computer program is stored. When the computer program is executed by a processor, each step of the foregoing method embodiments is implemented. The specific steps can refer to the relevant descriptions in the foregoing method embodiments, and will not be elaborated in this embodiment. The program for implementing any method or product of the embodiments of the present invention may be included in the computer and mobile terminal programs and stored in the readable storage medium.

[0237] Those of ordinary skill in the art can understand that all or part of the processes of implementing the methods in the above embodiments can be completed by instructing relevant hardware through a computer program. The program can be stored in a non-volatile computer-readable storage medium. Among them, any reference to a memory, storage, database or other medium used in the embodiments provided by the present invention may include non-volatile and / or volatile memories. Non-volatile memories may include ROM, PROM, EPROM, EEPROM or flash memory. Volatile memories may include random access memory (RAM) or external cache memory. By way of illustration and not limitation, RAM is available in various forms, such as SRAM, DRAM, SDRAM, DDR SDRAM, ESDRAM, SLDRAM, RDRAM, DRDRAM, RDRAM, etc.

[0238] In the description of the present invention, terms such as "first", "second", etc. are only used for descriptive purposes and cannot be construed as indicating or implying relative importance. The term "and / or" includes any and all combinations of one or more of the related listed items. In the description of the present invention, unless otherwise specified, "a plurality of" means at least two; "several" means at least zero; "connection" not only refers to the connection action between individuals, but also refers to the adjacent state between individuals, and there may also be intermediate components between the connected individuals; "block", "sector", "base cell", "small base cell", "model body" may or may not be separated on a physical / computer model. The description with reference to terms such as "an embodiment", "some embodiments" or "specific examples" means that the specific features, structures, materials or characteristics described in connection with the embodiment or example are included in at least one embodiment or example of the present invention. The schematic representations of the above terms do not necessarily refer to the same embodiment or example. The specific features, structures, materials or characteristics described can be combined in a suitable manner in any one or more embodiments or examples.

[0239] In the flowchart of the present invention or any process or method described in other ways, it can be understood that it represents a module, segment or part of code including one or more executable instructions for implementing a specific logical function or process. The scope of the preferred embodiments of the present invention includes additional implementations, where they may not be implemented in the order shown or discussed, including implementing in a substantially simultaneous manner or in the reverse order according to the involved functions. Moreover, at least some of the steps in each embodiment may include multiple sub-steps or multiple stages, and these sub-steps or stages do not necessarily need to be executed at the same time, but can be executed at different times, and the execution order of these sub-steps or stages does not necessarily need to be sequential, but can be executed alternately or in turn with at least a part of other steps or sub-steps or stages of other steps.

[0240] It can be understood that the same or similar parts in the above embodiments can be referred to each other. For the content not detailed in some embodiments, reference can be made to the same or similar content in other embodiments. The technical features of the embodiments can be combined arbitrarily. For the sake of brevity of description, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, it should be considered as within the scope described in this specification.

[0241] For products whose technical effects conform to or are equivalent to the implementation results of the manufacturing method of the present invention, they should be regarded as utilizing the technical results of the present invention and should be included in the protection scope of the present invention.

[0242] The above are only the preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. A method for fabricating an element odd spiral model, characterized in that, Including: Set a group of blocks G(x, y), and arrange the blocks G(x, y) to obtain a model body; where The positive integer x is the main layer orbit serial number; the positive integer y is the sub-layer orbit serial number; The block G(x, y) includes an element block; The setting of a set of blocks G(x, y) includes setting an element block G R (x, y); The setting element block G R (x, y) method includes: Set the block G(x, y) that meets the first condition R as the element block G R (x, y); where the element block G R (x, y) is used to provide an element active orbit that conforms to the characteristics of the electron orbital distribution outside the atomic nucleus; the first condition R is {x = [1, N], y = [1, CEIL(x / 2)]}; CEIL is the ceiling function; N is 4, 5, 6, 7, 8, 9, or 10, representing the maximum value of the main layer orbital number; Set chemical parameters on the element block, including: on the element block G R (x, y), set chemical element markers for 2×(2y - 1) chemical elements.

2. The manufacturing method according to claim 1, characterized in that: The block G(x, y) further includes a reference block; The setting of a set of blocks G(x, y) further includes setting a corresponding block G r (x, y); The method of setting the alignment target block G r (x, y) includes Set the block G(x, y) that meets the second condition r as the reference block G r (x, y); where the reference block G r (x, y) is used to provide a reference orbit corresponding to the active orbit of the element; the second condition r is {x = [1, N - 2], y = (CEIL(x / 2), CEIL(N / 2)]}; The arranging the block G(x, y) to obtain a model body includes: Arrange the blocks with the same main layer orbit serial number x in ascending order of the y serial number to obtain a sector S(x); based on x = [1, N], obtain sectors S(1) to S(N); The top view contour of the sector S(x) includes: two side edges and a bottom edge, and, a vertex or a top edge; where, the bottom edge is a straight line or an arc; the top edge is a straight line or an arc; the included angle between the two side edges, or the included angle between the extension lines of the two side edges, is 360 / N degrees; Arrange the sectors S(1) to S(N) counterclockwise in the same direction in sequence to obtain a model body, Or, arrange the sectors S(1) to S(N) clockwise in the same direction in sequence to obtain a model body.

3. The manufacturing method according to claim 1, characterized in that: The outer contour of the top view contour of the model body is a regular N-sided polygon or a circle.

4. The manufacturing method according to claim 1, characterized in that: The maximum value N of the main layer orbit serial number is 8.

5. The manufacturing method according to claim 1, characterized in that: The setting of a group of blocks G(x, y) further includes: setting 2y - 1 base grids or 2×(2y - 1) small base grids on the block G(x, y); the base grids are used to provide the electron orbit positions on the block G(x, y), and the number of 2y - 1 base grids is equal to the number of electron orbits on the block G(x, y); the number of 2×(2y - 1) small base grids is equal to the number of electrons on the block G(x, y).

6. The manufacturing method according to claim 1, characterized in that The setting of chemical parameters on the element block further includes: The chemical element label is used to provide active elements that conform to the characteristics of the nuclear outer electron distribution, including the name of the chemical element, the phase diagram, the atomic serial number, and / or the electron orbit parameters; The atomic serial numbers of the 2×(2y - 1) chemical elements are consecutive; On the element block G R (x, y), set chemical element labels for 2×(2y - 1) chemical elements starting from Z R (x, y) as the starting atomic serial number; where Element block G R Starting atomic serial number Z of (x, y) R (x, y) is 7. The manufacturing method according to claim 1, characterized in that The setting of chemical parameters on the element block includes: On the element block G R (x, y), an active track code is set; where The active orbital code is used to provide the positions of the active outer electron orbits corresponding to the active orbits of the element; the active orbital code is U R (x,y): U R (x,y) = strval(x - y + 1)u y Or U R (x,y) = strval(x - y + 1)u y 2(2y-1) ; In the formula, the strval() function is used to obtain the string value of a variable, and the active orbital u y = {s| y＝1 , p| y＝2 , d| y＝3 , f| y＝4 , g| y＝5}, where s, p, d, f, and g are the names of the electron orbits outside the nucleus; On the element block G R (x, y), set chemical element markers for 2×(2y - 1) chemical elements; among them, The chemical element label is used to provide active elements that conform to the characteristics of the nuclear outer electron distribution, including the name of the chemical element, the phase diagram, the atomic serial number, and / or the electron orbit parameters; The atomic serial numbers of the 2×(2y - 1) chemical elements are consecutive; Set element block G R (x,y) ratio to element block G R The starting atomic number of (x - 1,y) is increased by 2[CEIL(x / 2)] 2 numbers; Set element block G R (x,y) ratio to element block G R The starting atomic number of (x,1) is reduced by 2y 2 - 2 numbers 8. A method for manufacturing an element chess, characterized in that, On the basis of the manufacturing method of the element odd spiral model according to any one of claims 1 to 7, it further includes: Set 2y - 1 base grids in the block G(x, y); the base grids are used to provide the electron orbit positions and the chess playing positions on the block G(x, y); the number of 2y - 1 base grids is equal to the number of electron orbits on the block G(x, y); Set the model body as a chessboard to provide a chessboard and a chess playing position; the chess playing position includes the intersection points of the boundary lines of the base grids, the center point of the model body, and / or the internal area of the base grid; Set element pieces for playing chess and demonstrating active orbits on the model body.

9. The manufacturing method according to claim 8, wherein: The element pieces include first pieces; The number of the first chess pieces is consistent with the total number of the electronic orbits of all element blocks G R (x, y) in the model body For piece(s).

10. The manufacturing method according to claim 9, wherein: The first pieces include: (2y - 1)[N - 2(y - 1)]| y＝[1,CEIL(N / 2)] (2y - 1) pieces of chess pieces with a regular 2y - 1 - gon, used for playing chess and demonstrating the active orbit u y ; Among them, u y ={s| y＝1 , p| y＝2 , d| y＝3 , f| y＝4 , g| y＝5}, where s, p, d, f, and g are the names of the nuclear outer electron orbits; when y = 1, the chess piece has a circle; the number of sides 2y - 1 is equal to the number of electron orbits in the active orbit u y inside; The first pieces include pieces of two different main colors; The two different main colors are used to distinguish the pieces of different players.

11. The manufacturing method according to claim 9, wherein: The first pieces include pieces with different main colors on both sides.

12. An element odd spiral model produced by the manufacturing method according to any one of claims 1 to 7, characterized in that, Including: A model body including a block G(x,y) for providing element evolution demonstration; The block G(x,y) includes element blocks; Chemical parameters are set on the element blocks.

13. An element chess piece manufactured by the manufacturing method according to any one of claims 8 to 11, characterized in that, Including: A model body including a block G(x,y) for providing a chessboard and chess-playing positions, and for providing element evolution demonstration; the chess-playing positions include the intersection points of the boundary lines of the base grids, the center point of the model body, and / or the internal area of the base grids; The block G(x,y) includes element blocks; Chemical parameters are set on the element blocks; Element pieces for playing chess and demonstrating active orbits on the model body.

14. An electronic device, characterized in that, Including: A memory for storing a computer program; A processor for executing the computer program in the memory to implement the operation steps of the method according to any one of claims 1 to 11.

15. A readable storage medium having a computer program stored thereon, characterized in that, When the computer program is executed by the processor, the operation steps of the method according to any one of claims 1 to 11 are implemented.

Images