A quantum resonant cavity construction method and device, computer equipment and storage medium

Abstract

The application relates to a quantum resonant cavity construction method and device, computer equipment and a storage medium. The method comprises the following steps: acquiring a resonant cavity structure diagram and resonant cavity shape parameters corresponding to the resonant cavity structure diagram; decomposing the resonant cavity structure diagram to obtain at least one resonant cavity path diagram; constructing a resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram according to each resonant cavity path diagram; obtaining each resonant cavity structure sub-diagram according to the resonant cavity shape parameters and the resonant cavity path diagram layout formula; and combining the resonant cavity structure sub-diagrams to obtain a final resonant cavity structure diagram. The method can flexibly construct a quantum resonant cavity according to parameter changes, and the construction process is simpler and more accurate.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of quantum resonant cavity, and particularly relates to a quantum resonant cavity construction method and device, computer equipment and a storage medium. BACKGROUND

[0002] In the quantum field, the design and drawing of the quantum resonant cavity as a core element have a vital influence on the performance of the whole system. At present, the design of the resonant cavity often depends on manual drawing. However, since the spatial layout inside the integrated circuit is not fixed, the shape and size of the resonant cavity need to be adjusted according to the given space, which requires the designer to manually draw the resonant cavity according to the given space size frequently. The drawing process needs to consider the spatial layout and the frequently changing parameters of the resonant cavity, so that the resonant cavity drawing is difficult, repetitive and low in precision. SUMMARY

[0003] Therefore, it is necessary to provide a quantum resonant cavity construction method, device, computer equipment and storage medium capable of flexibly constructing the quantum resonant cavity according to the parameter change, and the construction process is more convenient and the precision is higher.

[0004] In one aspect, a quantum resonant cavity construction method is provided, and the method comprises the following steps.

[0005] Obtaining a resonant cavity structure diagram and resonant cavity shape parameters corresponding to the resonant cavity structure diagram;

[0006] Decomposing the resonant cavity structure diagram to obtain at least one resonant cavity path diagram;

[0007] According to each resonant cavity path diagram, a resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram is constructed respectively;

[0008] According to the resonant cavity shape parameters and the resonant cavity path diagram layout formula, each resonant cavity structure sub-diagram is obtained;

[0009] Combining the resonant cavity structure sub-diagrams to obtain a final resonant cavity structure diagram.

[0010] In one embodiment, the method further comprises the following steps.

[0011] The resonant cavity shape parameters comprise at least one of the following: resonant cavity parameters, coupling part parameters, readout line parameters, positioning parameters and cycle parameters; the resonant cavity parameters comprise one or more of the following: read trace width, read gap width, coupling radius and line height; the coupling part parameters comprise one or more of the following: read loss coupling end length and read frequency loss coupling distance; and the readout line parameters comprise trace width.

[0012] In one of the embodiments, further comprising:

[0013] The at least one resonant cavity path diagram comprises a first path diagram, the first path diagram comprises a regular part and an irregular part, wherein the irregular part of the first path diagram comprises a starting part and an ending part, the starting part and the ending part are constructed separately; the regular part of the first path diagram comprises a straight line and a circular arc line, the straight line and the circular arc line are connected in a loop; the loop part is drawn according to the variable value of the loop parameter, and the regular part of the first path diagram is constructed.

[0014] In one of the embodiments, further comprising:

[0015] The construction of the regular part and the irregular part comprises the construction of the starting part, the loop part and the ending part, wherein the construction of the starting part comprises determining the construction starting point of the regular part according to the positioning parameter, the read trace width and the read gap width, drawing a first vertical line vertically upward from the construction starting point, the length of the first vertical line is determined by the line height; drawing a first circular arc line clockwise from the end point of the first vertical line, drawing a first horizontal line horizontally to the right from the end point of the first circular arc line, drawing a second circular arc line counterclockwise from the end point of the first horizontal line, and drawing a second horizontal line horizontally to the left from the end point of the second circular arc line; the construction of the loop part comprises drawing a third circular arc line clockwise from the end point of the second horizontal line, drawing a third horizontal line horizontally to the right from the end point of the third circular arc line, drawing a fourth circular arc line counterclockwise from the end point of the third horizontal line, and drawing a fourth horizontal line horizontally to the left from the end point of the fourth circular arc line; the construction of the ending part comprises drawing a fifth circular arc line clockwise from the end point of the fourth horizontal line, drawing a second vertical line vertically upward from the end point of the fifth circular arc line, drawing a sixth circular arc line clockwise from the end point of the second vertical line, and drawing a fifth horizontal line horizontally to the right from the end point of the sixth circular arc line; wherein the radii of the first circular arc line, the second circular arc line, the third circular arc line, the fourth circular arc line, the fifth circular arc line and the sixth circular arc line are determined by the coupling radius and the read trace width, the lengths of the first horizontal line, the second horizontal line, the third horizontal line, the fourth horizontal line and the fifth horizontal line are determined by the read loss coupling end length, the second circular arc line, the third circular arc line and the fourth circular arc line are one-half circular arc lines, and the first circular arc line, the fifth circular arc line and the sixth circular arc line are one-fourth circular arc lines.

[0016] In one of the embodiments, the at least one resonant cavity path graph further comprises a second path graph parallel to the first path graph, the constructing the second path graph comprises that the starting point of the second path graph is at the same horizontal line with the starting point of the first path graph, and the horizontal distance between the first path graph and the second path graph is the reading gap width, and the second path graph is drawn in the same shape as the first path graph.

[0017] In one of the embodiments, the at least one resonant cavity path graph further comprises a third path graph at the bottom of the resonant cavity structure graph, the constructing the third path graph comprises that a sixth horizontal line is drawn horizontally right from the starting point of the regular part, a third vertical line is drawn vertically downward from the end point of the sixth horizontal line, a seventh horizontal line is drawn horizontally left from the end point of the third vertical line, a fourth vertical line is drawn vertically upward from the end point of the seventh horizontal line, an eighth horizontal line is drawn horizontally left from the end point of the fourth vertical line, a right half of the third path graph is formed, a left half of the third path graph is drawn symmetrically to the right half of the third path graph with the vertical line at the end point of the eighth horizontal line as the axis of symmetry, and the right half of the third path graph and the left half of the third path graph are combined to obtain the third path graph.

[0018] In one of the embodiments, the at least one resonant cavity path graph further comprises a fourth path graph and a fifth path graph at the top of the resonant cavity structure graph, the constructing the fourth path graph comprises that the starting point of the fourth path graph is vertically upward from the end point of the eighth horizontal line, a ninth horizontal line is drawn horizontally left from the starting point of the fourth path graph, the ninth horizontal line is parallel to the eighth horizontal line, and the distance between the ninth horizontal line and the eighth horizontal line is the reading frequency loss coupling distance.

[0019] The constructing the fifth path graph comprises that the starting point of the fifth path graph is vertically upward from the starting point of the ninth horizontal line, a tenth horizontal line is drawn horizontally left from the starting point of the fifth path graph, the tenth horizontal line is parallel to the ninth horizontal line, and the distance between the tenth horizontal line and the ninth horizontal line is the trace width.

[0020] In another aspect, a quantum resonant cavity construction device is provided, and the device comprises:

[0021] A first acquisition module is configured to acquire a resonant cavity structure graph and resonant cavity shape parameters corresponding to the resonant cavity structure graph.

[0022] A decomposition module is configured to decompose the resonant cavity structure graph to obtain at least one resonant cavity path graph.

[0023] The module is used to construct the resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram based on each resonant cavity path diagram.

[0024] The second acquisition module obtains the sub-diagrams of each resonant cavity structure based on the resonant cavity shape parameters and the resonant cavity path diagram layout formula;

[0025] The combination module combines the various resonant cavity structure sub-diagrams to obtain the final resonant cavity structure diagram.

[0026] In another aspect, a computer device is provided, including a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the computer program to perform the following steps:

[0027] Obtain the resonant cavity structure diagram and the corresponding resonant cavity shape parameters;

[0028] By decomposing the resonant cavity structure diagram, at least one resonant cavity path diagram is obtained;

[0029] Based on each resonant cavity path diagram, construct the resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram;

[0030] Based on the resonant cavity shape parameters and the resonant cavity path diagram layout formula, the sub-diagrams of each resonant cavity structure are obtained;

[0031] The resonant cavity structure sub-diagrams are combined to obtain the final resonant cavity structure diagram.

[0032] In another aspect, a computer-readable storage medium is provided having a computer program stored thereon, which, when executed by a processor, performs the following steps:

[0033] Obtain the resonant cavity structure diagram and the corresponding resonant cavity shape parameters;

[0034] By decomposing the resonant cavity structure diagram, at least one resonant cavity path diagram is obtained;

[0035] Based on each resonant cavity path diagram, construct the resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram;

[0036] Based on the resonant cavity shape parameters and the resonant cavity path diagram layout formula, the sub-diagrams of each resonant cavity structure are obtained;

[0037] The resonant cavity structure sub-diagrams are combined to obtain the final resonant cavity structure diagram.

[0038] The aforementioned quantum resonant cavity construction method, apparatus, computer equipment, and storage medium provide a foundation for design and optimization by acquiring the resonant cavity structure diagram and its shape parameters. It decomposes the complex resonant cavity structure diagram into multiple resonant cavity path diagrams, allowing for layer-by-layer analysis and optimization of each path diagram's design. This enhances the overall design flexibility and accuracy. Layout formulas are constructed for each path diagram; substituting the shape parameter values ​​into these formulas yields the corresponding resonant cavity structure sub-diagrams. This method of decomposing the entire diagram ensures consistency between the design of each sub-diagram and actual requirements, comprehensively considering the design of each part and optimizing the overall structure. This not only improves construction efficiency and reduces manual adjustment time but also provides high design flexibility and adaptability, enabling the resonant cavity system to meet diverse application needs and technical requirements. Ultimately, it achieves the effect of improving the accuracy and efficiency of resonant cavity construction through system decomposition, formulaic modeling, and integrated optimization. Attached Figure Description

[0039] Figure 1 This is a diagram illustrating the application environment of a quantum resonant cavity construction method in one embodiment;

[0040] Figure 2 This is a flowchart illustrating a method for constructing a quantum resonant cavity in one embodiment;

[0041] Figure 3 Define the structure diagram for the parameters of the quantum resonant cavity;

[0042] Figure 4 This is a schematic diagram of the first path of the resonant cavity in another embodiment;

[0043] Figure 5 This is a schematic diagram of the second path of the resonant cavity in another embodiment;

[0044] Figure 6 This is a schematic diagram of the third path of the resonant cavity in another embodiment;

[0045] Figure 7 This is a schematic diagram of the fourth path of the resonant cavity in another embodiment;

[0046] Figure 8 This is a schematic diagram of the fifth path of the resonant cavity in another embodiment;

[0047] Figure 9 This is a structural block diagram of a quantum resonant cavity construction device in one embodiment;

[0048] Figure 10 This is an internal structural diagram of a computer device in one embodiment. Detailed Implementation

[0049] To make the objectives, technical solutions, and advantages of this application clearer, the following detailed description is provided in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the scope of this application.

[0050] The specific embodiments of the present invention will now be described in more detail with reference to the accompanying drawings. The advantages and features of the present invention will become clearer from the following description and claims. It should be noted that the drawings are all in a very simplified form and use non-precise proportions, and are only used to facilitate and clarify the illustration of the embodiments of the present invention.

[0051] In the description of this invention, it should be understood that the terms "upper", "lower", "left", "right", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this invention.

[0052] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this invention, "a plurality of" means at least two, such as two, three, etc., unless otherwise explicitly specified.

[0053] The quantum resonant cavity construction method provided in this application can be applied to, for example... Figure 1 In the application environment shown, terminal 102 communicates with server 104 via a network. Terminal 102 can be, but is not limited to, various personal computers, laptops, smartphones, tablets, and portable wearable devices, and server 104 can be a standalone server or a server cluster consisting of multiple servers.

[0054] In one embodiment, such as Figure 2 As shown, a method for constructing a quantum resonant cavity is provided, which can be applied to... Figure 1 Taking the terminal in the example, the explanation includes the following steps:

[0055] Step 201: Obtain the resonant cavity structure diagram and the resonant cavity shape parameters corresponding to the resonant cavity structure diagram;

[0056] Step 203: Decompose the resonant cavity structure diagram to obtain at least one resonant cavity path diagram;

[0057] Step 205: Based on each resonant cavity path diagram, construct the resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram;

[0058] Step 207: Based on the resonant cavity shape parameters and the resonant cavity path diagram layout formula, obtain the sub-diagrams of each resonant cavity structure;

[0059] Step 209: Combine the sub-diagrams of each resonant cavity structure to obtain the final resonant cavity structure diagram.

[0060] In one embodiment, the combination of resonant cavity structure subgraphs can be achieved through various combination strategies, including stacked combination and planar combination.

[0061] Layered assembly refers to stacking modules together in a hierarchical structure to form a multi-level structural diagram, such as stacking the bottom basic module, coupling parts, and the top entrance / exit parts layer by layer. Planar assembly refers to aligning all modules on the same plane. Layered assembly allows for the individual use of different parts, providing greater flexibility in application.

[0062] Specifically, the drawing tools used to construct the quantum resonant cavity include, but are not limited to, AutoCAD, Matlab, ANSYS Designer, KLayout, and Fabric.js.

[0063] The aforementioned quantum resonant cavity construction method provides a foundation for design and optimization by obtaining the resonant cavity structure diagram and its shape parameters. It decomposes the complex resonant cavity structure diagram into multiple resonant cavity path diagrams, allowing for layer-by-layer analysis and optimization of each path diagram's design. This enhances the overall design flexibility and accuracy. Layout formulas are constructed for each path diagram; substituting the shape parameter values ​​into these formulas yields the corresponding resonant cavity structure sub-diagrams. This method of decomposing the entire diagram ensures consistency between the design of each sub-diagram and actual requirements, comprehensively considering the design of each part and optimizing the overall structure. This not only improves construction efficiency and reduces manual adjustment time but also provides high design flexibility and adaptability, enabling the resonant cavity system to meet diverse application needs and technical requirements. Ultimately, this method achieves the effect of improving the accuracy and efficiency of resonant cavity construction through system decomposition, formulaic modeling, and integrated optimization.

[0064] In one embodiment, the resonant cavity shape parameters include at least one of the following: resonant cavity parameters, coupling section parameters, readout line parameters, positioning parameters, and loop parameters; the resonant cavity parameters include one or more of the following: readout trace width, readout gap width, coupling radius, and line height; the coupling section parameters include one or more of the following: readout loss coupling end length, readout frequency loss coupling spacing; the readout line parameters include the trace width. The positioning parameter refers to the position of a coordinate point formed by X and Y coordinates, used to indicate the current point's position, and the loop parameter (count) refers to the parameter defining the required number of loops for the loop section.

[0065] Indicatively, such as Figure 3 As shown, the resonant cavity parameters include at least:

[0066] rtw (readout trace width): readout trace width; rgw (readout gap width): readout gap width; cl (coupling length): coupling length; cw (coupling width): coupling width; cgw (coupling gap width): coupling gap width; cbl (coupling bar length): coupling bar length; rr (readout round): coupling radius; rl (readout length): readout length; height: line height.

[0067] The coupling parameters include at least:

[0068] rFDLcs:readout FDL(Frequency-Dependent Loss)coupling spacing: Reads the frequency loss coupling spacing; rFDLcl(readout FDL(Frequency-Dependent Loss)coupling length): Reads the frequency loss coupling length; rFDLel(readout FDL(Frequency-Dependent Loss)end length): Reads the loss coupling end length.

[0069] The readout parameters must include at least: FDLtw(FDL(Frequency-Dependent Loss)trace width: trace width; FDLgw(FDL(Frequency-Dependent Loss)gap width): gap width. Loop parameter: count.

[0070] In this embodiment, the design of the resonant cavity is comprehensively and precisely described and adjusted by defining the resonant cavity shape parameters. This provides a detailed design basis for optimizing the resonant cavity performance, and such detailed parameter definitions facilitate precise adjustment of various design elements.

[0071] In one embodiment, at least one resonant cavity path diagram includes a first path diagram, which includes a regular portion and an irregular portion. The irregular portion of the first path diagram includes a start portion and an end portion, which are constructed separately. The regular portion of the first path diagram includes straight lines and arcs, which are connected end-to-end to form a loop portion. The loop portion is drawn cyclically according to the variable values ​​defined by the loop parameters to construct the regular portion of the first path diagram.

[0072] Indicatively, such as Figure 4 As shown, the left image is the starting part of the irregular section, the middle image is the regular section drawn on the basis of the starting part, where the regular section is composed of the loop section repeated multiple times, and the right image is the ending part of the irregular section drawn on the basis of the loop section. That is, the first path diagram consists of the starting part, the loop section, and the ending part.

[0073] In this embodiment, by decomposing the resonant cavity path diagram into regular and irregular parts, where the regular part includes a loop composed of straight lines and arcs, and the irregular part includes separately constructed start and end sections, this method can efficiently handle complex path diagram construction. By cyclically drawing the regular part according to the variable values ​​defined by the loop parameters, the regular part of the path diagram can be accurately constructed and adjusted, thereby improving the accuracy and consistency of the design.

[0074] In one embodiment, constructing the regular and irregular portions includes constructing a starting portion, a loop portion, and an ending portion. Constructing the starting portion includes: determining the starting point for the regular portion based on the positioning parameters, the read trace width, and the read gap width; drawing a first vertical line upwards from the starting point, the length of which is determined by the line height; drawing a first arc clockwise from the end point of the first vertical line; drawing a first horizontal line to the right from the end point of the first arc; drawing a second arc counterclockwise from the end point of the first horizontal line; and drawing a second horizontal line to the left from the end point of the second arc. Constructing the loop portion includes: drawing a third arc clockwise from the end point of the second horizontal line; drawing a third horizontal line to the right from the end point of the third arc; and drawing a third arc counterclockwise from the end point of the third horizontal line. Draw a fourth arc, and draw a fourth horizontal line horizontally to the left from the endpoint of the fourth arc; constructing the ending part includes drawing a fifth arc clockwise from the endpoint of the fourth horizontal line, drawing a second vertical line vertically upward from the endpoint of the fifth arc, drawing a sixth arc clockwise from the endpoint of the second vertical line, and drawing a fifth horizontal line horizontally to the right from the endpoint of the sixth arc; wherein, the radii of the first, second, third, fourth, fifth, and sixth arcs are determined by the coupling radius and the read trace width, the lengths of the first, second, third, fourth, and fifth horizontal lines are determined by the read loss coupling end length, the second, third, and fourth arcs are half-circle arcs, and the first, fifth, and sixth arcs are quarter-circle arcs.

[0075] Preferably, the Fabric.js drawing tool is used.

[0076] Indicatively, such as Figure 4 The diagram shown is a schematic of the first path. The layout formula is constructed through a specific drawing process, starting with drawing the initial part of the irregular section:

[0077] Build starting point: 'M'+((x+rtw / 2))+”+(y-rgw / 2). This part uses the M (move to) command to locate the starting point of the path. The X coordinate of the starting point is x+rtw / 2 and the Y coordinate is y-rgw / 2.

[0078] Draw the first vertical line: 'L'+”+((x+rtw / 2))+','+(-height). Using the L (line to) command, draw a straight line from the starting point to a new point. The X coordinate of this new point is the same as the starting point, and the Y coordinate is -height, meaning it moves upwards by a distance of -height (negative values ​​indicate upward movement). Draw the first arc: 'a'+(rr-rtw / 2)+','+(rr-rtw / 2)+'001'+(rr-rtw / 2)+”+(-(rr-rtw / 2)). This part uses the a command to draw an arc. The parameters of the a command are: radius X, radius Y, X-axis rotation angle (here, 0 indicates no rotation), large arc indicator (0 indicates small arc), clockwise direction (1 indicates clockwise), offset of the endpoint X coordinate relative to the arc's starting point along the X-axis, and offset of the endpoint Y coordinate relative to the arc's starting point along the Y-axis. Draw the first horizontal line: 'h'+”+(paraml / 2), this part uses the h (horizontal movement) command, which moves the current point along the X-axis by a distance of paraml / 2. Draw the second arc: 'a'+(rr+rtw / 2)+','+(rr+rtw / 2)+'000'+'0'+”+(-((rr+rtw / 2)*2)), this part uses the a command to draw an arc. The parameters of the a command are, in order: radius X, radius Y, X-axis rotation angle (here, 0 indicates no rotation), large arc indicator (0 indicates small arc), counterclockwise direction (0 indicates counterclockwise), the offset of the arc's endpoint X-coordinate relative to the arc's starting point along the X-axis (0 indicates the arc's endpoint is aligned with the starting point on the X-axis), and the offset of the arc's endpoint Y-coordinate relative to the arc's starting point along the Y-axis (a negative value indicates the endpoint is above the starting point, and the offset is twice the radius). To draw the second horizontal line: 'h'+”+(-paraml)+”, this part uses the h (horizontal movement) command, which means moving -paraml distance to the left along the X-axis from the current point (i.e., the end point of the second arc) (a negative value indicates moving to the left).

[0079] Therefore, the layout formula for the initial part of the first path graph is:

[0080] var pathchart1='M'+((x+rtw / 2))+”+(y-rgw / 2)+”+’L’+’

[0081] '+((x+rtw / 2))+','+(-height)+”+'a'+(rr-rtw / 2)+','+(rr-rtw / 2)+'001'+

[0082] (rr-rtw / 2)+”+(-(rr-rtw / 2))+”+'h'+”+(paraml / 2)+”+'a'+(rr+rtw / 2)+','+

[0083] (rr+rtw / 2)+'000'+'0'+”+(-((rr+rtw / 2)*2))+”+’h’+”+(-paraml)+”;

[0084] Next, we'll draw the rules, starting with the loop section:

[0085] To draw the third arc: 'a'+(rr-rtw / 2)+','+(rr-rtw / 2)+'001'+'0'+','+(-((rr-rtw / 2)*2)). This part uses the 'a' command to draw an arc. The parameters of the 'a' command are: radius X, radius Y, X-axis rotation angle (0 here indicates no rotation), large arc indicator (0 indicates small arc), clockwise direction (1 indicates clockwise), offset of the endpoint X coordinate relative to the arc's starting point along the X-axis, and offset of the endpoint Y coordinate relative to the arc's starting point along the Y-axis (negative values ​​indicate the endpoint is above the starting point, and the offset is twice the radius). To draw the third horizontal line: 'h'+"+(paraml)+", this part uses the 'h' (horizontal movement) command, which indicates moving the line from the current point (i.e., the endpoint of the third arc) to the right along the X-axis by the distance paraml (positive values ​​indicate movement to the right). To draw the fourth arc: 'a'+(rr+rtw / 2)+','+(rr+rtw / 2)+'000'+'0'+','+(-((rr+rtw / 2)*2)). This part uses the 'a' command to draw an arc. The parameters of the 'a' command are: radius X, radius Y, X-axis rotation angle (here, 0 indicates no rotation), large arc indicator (0 indicates small arc), counterclockwise direction (0 indicates counterclockwise), offset of the endpoint X coordinate relative to the arc's starting point along the X-axis, and offset of the endpoint Y coordinate relative to the arc's starting point along the Y-axis (negative values ​​indicate the endpoint is above the starting point, and the offset is twice the radius). To draw the fourth horizontal line: 'h'+”+(-(paraml))+", this part uses the 'h' (horizontal movement) command, which indicates moving the line from the current point (i.e., the endpoint of the fourth arc) to the right along the X-axis by a distance of -paraml (negative values ​​indicate moving to the left).

[0086] Therefore, the layout formula for the loop portion of the first path graph is:

[0087] 'a'+(rr-rtw / 2)+','+(rr-rtw / 2)+'001'+'0'+','+(-((rr-rtw / 2)*2))+'h'+”+(p araml)+”+'a'+(rr+rtw / 2)+','+(rr+rtw / 2)+'000'+'0'+','+(-((rr+rtw / 2)*2))

[0088] +'h'+"+(-(paraml))+";

[0089] Then construct the loop condition:

[0090] Loop initialization: var i = 0; Define a loop variable i and initialize it to 0.

[0091] Loop condition: i < count / 2; Ensure that the loop continues to execute until i reaches count / 2. This means that if count is 4, the loop will execute twice, where i represents half of a loop, that is, a horizontal line and an arc line, to ensure that the end direction of the loop can be on the left or on the right. Loop update: i++, which means increment the value of i at the end of each loop iteration.

[0092] Therefore, the layout formula for the first path diagram rule part is:

[0093] for (var i = 0; i < count / 2; i++) { pathchart1 = pathchart1 + 'a' + (rr - rtw / 2) + ',' + (rr - rtw / 2) + '001' + '0' + ',' + (-((rr - rtw / 2) * 2)) + 'h' + "+(paraml)+" + 'a' + (rr + rtw / 2) + ',' + (rr + rtw / 2) + '000' + '0' + ',' + (-((rr + rtw / 2) * 2)) + 'h' + "+(-(paraml))+";}

[0094] Finally, draw the end part of the irregular part:

[0095] To draw the fifth arc: 'a'+(rr-rtw / 2)+','+(rr-rtw / 2)+'001'+”+(-(rr-rtw / 2))+','+(-(rr-rtw / 2))+”. This part uses the 'a' command to draw an arc. The parameters of the 'a' command are: radius X, radius Y, X-axis rotation angle (0 here indicates no rotation), large arc indicator (0 indicates small arc), clockwise direction (1 indicates clockwise), offset of the endpoint X coordinate relative to the arc's starting point along the X-axis, and offset of the endpoint Y coordinate relative to the arc's starting point along the Y-axis (negative values ​​indicate the endpoint is above the starting point, with an offset of rr-rtw / 2). To draw the second vertical line: 'v'+”+(-(rFDLel))+”. This part uses the 'v' (vertical movement) command, which indicates moving the line upwards along the Y-axis by the distance rFDLel from the current point (i.e., the endpoint of the fifth arc) (negative values ​​indicate upward movement). To draw the sixth arc: 'a'+((rr-rtw / 2))+','+((rr-rtw / 2))+'001'+”+(rr-rtw / 2)+”+(-(rr-rtw / 2)). This part uses the 'a' command to draw an arc. The parameters of the 'a' command are: radius X, radius Y, X-axis rotation angle (0 here indicates no rotation), large arc indicator (0 indicates small arc), clockwise direction (1 indicates clockwise), offset of the endpoint X coordinate relative to the arc's starting point along the X-axis, and offset of the endpoint Y coordinate relative to the arc's starting point along the Y-axis (negative values ​​indicate the endpoint is above the starting point, with an offset of rr-rtw / 2). To draw the fifth horizontal line: 'h'+”+”+(rFDLcl)+''. This part uses the 'h' (horizontal movement) command, which indicates moving the line from the current point (i.e., the endpoint of the sixth arc) to the right along the X-axis by the distance rFDLcl (positive values ​​indicate movement to the right).

[0096] Therefore, the layout formula for the end portion of the irregular part of the first path graph is:

[0097] pathchart1='a'+(rr-rtw / 2)+','+(rr-rtw / 2)+'001'+”+(-(rr-rtw / 2))+’,’+(-(rr-rtw / 2))+”+’v’+”+(-(rFD Lel))+”+'a'+((rr-rtw / 2))+','+((rr-rtw / 2))+'001'+”+(rr-rtw / 2)+”+(-(rr-rtw / 2))+’h’+”+”+(rFDLcl)+”;

[0098] In summary, by combining the layout formulas for the beginning, end, and regular parts of the irregular portion, we obtain the complete layout formula for the first path graph:

[0099] varpathchart1='M'+((x+rtw / 2))+”+(y-rgw / 2)+”+’L’+’

[0100] '+((x+rtw / 2))+','+(-height)+”+'a'+(rr-rtw / 2)+','+(rr-rtw / 2)+'001'+(rr-rtw / 2)+”+(-(rr-rtw / 2))+”+'h '+”+(paraml / 2)+”+’a’+(rr+rtw / 2)+’,’+(rr+rtw / 2)+’000’+’0’+”+(-((rr+rtw / 2)*2))+”+’h’+”+(-paraml)+”+

[0101] for(var i = 0; i <count / 2;i++){pathchart1=pathchart1+'a'+(rr-rtw / 2)+','+(rr-rtw / 2)+'001'+'0'+','+(-((rr-rtw / 2)*2))+'h'+”+(paraml)+”+'a'+(rr+rtw / 2)+','+(rr+rtw / 2)+'000'+'0'+','+(-((rr+rtw / 2)*2))+'h'+”+(-(paraml))+”;}

[0102] +'a'+(rr-rtw / 2)+','+(rr-rtw / 2)+'001'+”+(-(rr-rtw / 2))+','+(-(rr-rtw / 2))+''+'v'+”+(-(rFDLel)) +”+'a'+((rr-rtw / 2))+','+((rr-rtw / 2))+'001'+”+(rr-rtw / 2)+”+(-(rr-rtw / 2))+’h’+”+”+(rFDLcl)+”;

[0103] In this embodiment, the geometry of the path graph is precisely determined by drawing the regular and irregular parts step by step. Specifically, the method for constructing the starting part, the loop part, and the ending part involves drawing a series of vertical lines, horizontal lines, and arcs starting from a specified starting point, wherein the radius of the arcs and the length of the line segments are determined according to preset parameters. This method ensures the accuracy and consistency of the path graph.

[0104] In one embodiment, at least one resonant cavity path diagram further includes a second path diagram parallel to the first path diagram. Constructing the second path diagram includes having the starting point of the second path diagram and the starting point of the first path diagram on the same horizontal line, the horizontal distance between the first path diagram and the second path diagram being the readout gap width, and drawing a second path diagram with the same shape as the first path diagram.

[0105] Indicatively, such as Figure 5 The second path diagram is shown. The second path diagram is drawn in the same way as the first path diagram, except that the starting point is different.

[0106] Build starting point: 'M'+((x+rtw / 2-rgw))+”+(y-rgw / 2), this part uses the M (move to) command to locate the starting point of the path, the X coordinate of the starting point is x-rtw / 2-rgw, and the Y coordinate is y-rgw / 2.

[0107] Therefore, the complete layout formula for the second path graph is:

[0108] varpathchart2='M'+(x-rtw / 2-rgw))+”+(y-rgw / 2)+’

[0109] '+'L'+','+(x-rtw / 2-rgw)+','+(height)+”+'a'+(rr+rtw / 2+rgw)+','+(rr+rtw / 2+rgw)

[0110] +'001'+(rr+rtw / 2)*2))+”+'h'+”+(-paraml / 2)+”+'a'+(rr-rtw / 2-rgw)+','+

[0111] (rr-rtw / 2-rgw)+'000'+'0'+”+(-((rr+rtw / 2-rgw)*2))+”+’h’+”+(-paraml)+”;

[0112] for(var i = 0; i <count / 2;i++){pathchart2=pathchart2+'a'+(rr+rtw / 2+rgw)+','+(rr+rtw / 2+rgw)+'001'+'0'+','+(-((rr+rtw / 2+rgw)*2))+'h'+”+(paraml)+''+'a'+(rr-rtw / 2-rgw)+','+(rr-rtw / 2-rgw)+'000'+'0'+','+(-((rr-rtw / 2-rgw)*2))

[0113] +'h'+”+(-(paraml))+”;}

[0114] +'a'+(rr+rtw / 2+rgw)+','+(rr+rtw / 2+rgw)+'001'+”+(-(rr+rtw / 2+rgw))+’ ,'+(-(rr+rtw / 2+rgw))+”+'v'+”+(-(rFDLel))+”+’a’+(rr+rtw / 2+rgw)+’,’+

[0115] (rr+rtw / 2+rgw)+'001'+”+(rr+rtw / 2+rgw)+”+(-(rr+rtw / 2+rgw))+’h’+”+’

[0116] '+(rFDLcl)+”;

[0117] In this embodiment, by constructing a second path map horizontally parallel to the first path map, consistency in shape and horizontal spacing between the two path maps is ensured. This method utilizes the reading gap width as the horizontal spacing to achieve alignment and repeating layout of the path maps, ensuring structural consistency and accuracy.

[0118] In one embodiment, at least one resonant cavity path diagram further includes a third path diagram at the bottom of the resonant cavity structure diagram. Constructing the third path diagram includes drawing a sixth horizontal line horizontally to the right from the starting point of the regular part, drawing a third vertical line vertically downward from the end point of the sixth horizontal line, drawing a seventh horizontal line horizontally to the left from the end point of the third vertical line, drawing a fourth vertical line vertically upward from the end point of the seventh horizontal line, and drawing an eighth horizontal line horizontally to the left from the end point of the fourth vertical line, forming the right half of the resonant cavity third path diagram. Using the vertical line where the end point of the eighth horizontal line is located as the axis of symmetry, a left half of the third path diagram symmetrical to the right half of the third path diagram is drawn. The right half of the third path diagram and the left half of the third path diagram are combined to obtain the third path diagram.

[0119] Indicatively, such as Figure 6 The diagram shown is a schematic of the third path, which constructs the layout formula through a specific drawing process.

[0120] Build starting point: 'M'+(x+rtw / 2-cgw / 2)+"+(y-cgw)+", This part uses the M (move to) command to locate the starting point of the path. The X coordinate of the starting point is x+rtw / 2-cgw / 2, and the Y coordinate is y-cgw.

[0121] To draw the sixth horizontal line: 'h'+”+(cbl / 2-rtw / 2+cw+cgw)+”. This part uses the h (horizontal move) command, indicating a movement of cbl / 2-rtw / 2+cw+cgw distance to the right along the X-axis from the current point (the starting point of the first vertical line) (a positive value indicates movement to the right). To draw the third vertical line: 'v'+(cl+cgw*2)+”+. This part uses the v (vertical move) command, indicating a movement of cl+cgw*2 distance downwards along the Y-axis from the current point (the end point of the sixth horizontal line) (a positive value indicates movement downwards). To draw the seventh horizontal line: 'h'+”+(-(cw+cgw*2))+”+. This part uses the h (horizontal move) command, indicating a movement of (-(cw+cgw*2)) distance to the left along the X-axis from the current point (the end point of the third vertical line) (a negative value indicates movement to the left). (Move). To draw the fourth vertical line: 'v'+”+(-(cl-cw))+”, this part uses the v (vertical move) command, indicating that the line moves upward along the Y-axis by a distance of -(cl-cw) from the current point (i.e., the end point of the sixth horizontal line) (a negative value indicates moving upward). To draw the eighth horizontal line: 'h'+”+(-(cbl-cgw))+”, this part uses the h (horizontal move) command, indicating that the line moves to the left along the X-axis by a distance of -(cbl-cgw) from the current point (i.e., the end point of the fourth vertical line) (a negative value indicates moving to the left).

[0122] Then construct the left half of the third path graph in the same way as described above.

[0123] Therefore, the complete layout formula for the second path graph is:

[0124] varpathchart3='M'+(x+rtw / 2-cgw / 2)+”+(y-cgw)+”+’h’+’

[0125] '+(cbl / 2-rtw / 2+cw+cgw)+”+'v'+(cl+cgw*2)+”+’h’+”+(-(cw+cgw*2))+”+’v '+''+(-(cl-cw))+”+'h'+”+(-(cbl-cgw*2))+”+’v’+”+(-(cl-cw))+”+’h’+”+

[0126] (-(cw+cgw*2))+”+'v'+”+(-(cl+cgw*2))+”+’h’+”+(cbl / 2-rtw / 2+cw+cgw)+”;

[0127] In this embodiment, a series of horizontal and vertical lines are drawn from the starting point of the regular section to form the right half, and the left half is drawn using this as the axis of symmetry. These lines are then combined to obtain the complete third path diagram. This method ensures the symmetry and structural consistency of the bottom of the path diagram, which helps to construct a stable and symmetrical bottom structure for the resonant cavity.

[0128] In one embodiment, at least one resonant cavity path diagram further includes a fourth path diagram and a fifth path diagram at the top of the resonant cavity structure diagram. Constructing the fourth path diagram includes: the starting point of the construction of the fourth path diagram is located in the vertical upward direction of the end point of the eighth horizontal line; a ninth horizontal line is drawn horizontally to the left from the starting point of the construction of the fourth path diagram; the ninth horizontal line is parallel to the eighth horizontal line; and the distance between the ninth horizontal line and the eighth horizontal line is the reading frequency loss coupling spacing.

[0129] Indicatively, such as Figure 7 The image shown is a schematic diagram of the fourth path.

[0130] Build starting point: 'M'+(x-(paraml / 2+rtw / 2))+”+

[0131] (-(height+(rr-rtw / 2)+(rr+rtw / 2)*12+(rr-rtw / 2)*10+(rr-rtw / 2)*2+rFDLel+rtw+rFDLcs+rgw+FDLgw))+", this part uses the M (move to) command to locate the starting point of the path. The X coordinate of the starting point is x-(paraml / 2+rtw / 2), and the Y coordinate is

[0132] -(height+(rr-rtw / 2)+(rr+rtw / 2)*12+(rr-rtw / 2)*10+(rr-rtw / 2)*2+rFDLel+rtw+rFDLcs+rgw+FDLgw).

[0133] To draw the ninth horizontal line: 'h'+”+((rFDLcl+rr+rtw / 2))+”, this part uses the h (horizontal move) command, which indicates moving the line rFDLcl+rr+rtw / 2 to the right along the X-axis from the starting point (a positive value indicates moving to the right).

[0134] Therefore, the complete layout formula for the fourth path graph is:

[0135] varpathchart4='M'+(x-(paraml / 2+rtw / 2))+'

[0136] '+(-(height+(rr-rtw / 2)+(rr+rtw / 2)*12+(rr-rtw / 2)*10+(rr-rtw / 2)*2+rFDLel+rtw+rFDLc s+rgw+FDLgw))+”+’h’+”+((rFDLcl+rr+rtw / 2))+”;

[0137] Constructing the fifth path map includes starting the fifth path map from the vertically upward direction of the starting point of the ninth horizontal line, drawing a tenth horizontal line horizontally to the left from the starting point of the fifth path map, the tenth horizontal line being parallel to the ninth horizontal line, and the distance between the tenth horizontal line and the ninth horizontal line being the trace width.

[0138] Indicatively, such as Figure 8 The image shown is a schematic diagram of the fifth path.

[0139] Build starting point: 'M'+(x-(paraml / 2+rtw / 2))+'

[0140] The part '(-(height+(rr-rtw / 2)+(rr+rtw / 2)*12+(rr-rtw / 2)*10+(rr-rtw / 2)*2+rFDLel+rtw+rFDLcs+FDLtw+FDLgw*2))+' uses the M (move to) command to locate the starting point of the path. The X coordinate of the starting point is (x-(paraml / 2+rtw / 2), and the Y coordinate is...

[0141] -(height+(rr-rtw / 2)+(rr+rtw / 2)*12+(rr-rtw / 2)*10+(rr-rtw / 2)*2+rFDLel+rtw+rFDLcs+FDLtw+FDLgw*2).

[0142] To draw the tenth horizontal line: 'h'+”+((rFDLcl+rr+rtw / 2))+”, this part uses the h (horizontal move) command, which indicates moving the line rFDLcl+rr+rtw / 2 to the right along the X-axis from the starting point (a positive value indicates moving to the right).

[0143] Therefore, the complete layout formula for the fifth path diagram is:

[0144] var pathchart5='M'+(x-(paraml / 2+rtw / 2))+'

[0145] '(-(height+(rr-rtw / 2)+(rr+rtw / 2)*12+(rr-rtw / 2)*10+(rr-rtw / 2)*2+rFDLel+rtw+rFDLcs+FDLtw+FDLgw*2))+'

[0146] +'h'+”+((rFDLcl+rr+rtw / 2))+”;

[0147] In this embodiment, by describing the construction methods of the fourth and fifth path diagrams, the precise alignment and layout of the top path diagram are ensured, which conforms to the design specifications and improves the accuracy and consistency of the overall path diagram.

[0148] It should be understood that, although Figure 2 The steps in the flowchart are shown sequentially as indicated by the arrows, but these steps are not necessarily executed in the order indicated by the arrows. Unless otherwise specified herein, there is no strict order in which these steps are executed, and they can be performed in other orders. Figures 3-7 At least some of the steps in the process may include multiple sub-steps or multiple stages. These sub-steps or stages are not necessarily completed at the same time, but can be executed at different times. The execution order of these sub-steps or stages is not necessarily sequential, but can be executed in turn or alternately with other steps or at least some of the sub-steps or stages of other steps.

[0149] In one embodiment, such as Figure 9 As shown, a quantum resonant cavity construction device is provided, comprising: a first acquisition module 21, a decomposition module 22, a construction module 23, a second acquisition module 24, and a combination module 25, wherein:

[0150] The first acquisition module 21 is used to acquire a resonant cavity structure diagram and resonant cavity shape parameters corresponding to the resonant cavity structure diagram.

[0151] Decomposition module 22 is used to decompose the resonant cavity structure diagram to obtain at least one resonant cavity path diagram;

[0152] Module 23 is used to construct the resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram based on each resonant cavity path diagram.

[0153] The second acquisition module 24 obtains the structural sub-diagrams of each resonant cavity based on the resonant cavity shape parameters and the resonant cavity path diagram layout formula.

[0154] The combination module 25 combines the various resonant cavity structure sub-diagrams to obtain the final resonant cavity structure diagram.

[0155] In one embodiment, the first acquisition module 21 acquires at least one of the following resonant cavity shape parameters: resonant cavity parameters, coupling part parameters, readout line parameters, positioning parameters, and loop parameters; the resonant cavity parameters include one or more of the following: readout trace width, readout gap width, coupling radius, and line height; the coupling part parameters include one or more of the following: readout loss coupling end length, readout frequency loss coupling spacing; and the readout line parameters include the trace width.

[0156] In one embodiment, the decomposition module 22 decomposes the resonant cavity structure diagram, including a first path diagram, a second path diagram, a third path diagram, a fourth path diagram, and a fifth path diagram.

[0157] In one embodiment, the construction module 23 constructs a resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram, including layout formulas corresponding to the first path diagram, the second path diagram, the third path diagram, the fourth path diagram, and the fifth path diagram.

[0158] Specific limitations regarding the quantum resonant cavity construction device can be found in the limitations of the quantum resonant cavity construction method above, and will not be repeated here. Each module in the aforementioned quantum resonant cavity construction device can be implemented entirely or partially through software, hardware, or a combination thereof. These modules can be embedded in hardware or independently of the processor in a computer device, or stored in software in the memory of a computer device, so that the processor can call and execute the operations corresponding to each module.

[0159] In one embodiment, a computer device is provided, which may be a terminal, and its internal structure diagram may be as follows: Figure 10 As shown, the computer device includes a processor, memory, network interface, display screen, and input devices connected via a system bus. The processor provides computing and control capabilities. The memory includes non-volatile storage media and internal memory. The non-volatile storage media stores the operating system and computer programs. The internal memory provides an environment for the operation of the operating system and computer programs in the non-volatile storage media. The network interface is used to communicate with external terminals via a network connection. When the computer program is executed by the processor, it implements a method for constructing a quantum resonant cavity. The display screen can be a liquid crystal display (LCD) or an e-ink display. The input devices can be a touch layer covering the display screen, buttons, a trackball, or a touchpad mounted on the computer device's casing, or an external keyboard, touchpad, or mouse.

[0160] Those skilled in the art will understand that Figure 10The structure shown is merely a block diagram of a portion of the structure related to the present application and does not constitute a limitation on the computer device to which the present application is applied. Specific computer devices may include more or fewer components than those shown in the figure, or combine certain components, or have different component arrangements.

[0161] In one embodiment, a computer device is provided, including a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the computer program to perform the following steps:

[0162] Obtain the resonant cavity structure diagram and the corresponding resonant cavity shape parameters;

[0163] By decomposing the resonant cavity structure diagram, at least one resonant cavity path diagram is obtained;

[0164] Based on each resonant cavity path diagram, construct the resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram;

[0165] Based on the resonant cavity shape parameters and the resonant cavity path diagram layout formula, the sub-diagrams of each resonant cavity structure are obtained;

[0166] The resonant cavity structure sub-diagrams are combined to obtain the final resonant cavity structure diagram.

[0167] In one embodiment, a computer-readable storage medium is provided having a computer program stored thereon, the computer program performing the following steps when executed by a processor:

[0168] Obtain the resonant cavity structure diagram and the corresponding resonant cavity shape parameters;

[0169] By decomposing the resonant cavity structure diagram, at least one resonant cavity path diagram is obtained;

[0170] Based on each resonant cavity path diagram, construct the resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram;

[0171] Based on the resonant cavity shape parameters and the resonant cavity path diagram layout formula, the sub-diagrams of each resonant cavity structure are obtained;

[0172] The resonant cavity structure sub-diagrams are combined to obtain the final resonant cavity structure diagram.

[0173] In one embodiment, a computer program product is provided, including a computer program that, when executed by a processor, performs the following steps:

[0174] Obtain the resonant cavity structure diagram and the corresponding resonant cavity shape parameters;

[0175] By decomposing the resonant cavity structure diagram, at least one resonant cavity path diagram is obtained;

[0176] Based on each resonant cavity path diagram, construct the resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram;

[0177] Based on the resonant cavity shape parameters and the resonant cavity path diagram layout formula, the sub-diagrams of each resonant cavity structure are obtained;

[0178] The resonant cavity structure sub-diagrams are combined to obtain the final resonant cavity structure diagram.

[0179] Those skilled in the art will understand that all or part of the processes in the methods of the above embodiments can be implemented by a computer program instructing related hardware. The computer program can be stored in a non-volatile computer-readable storage medium, and when executed, it can include the processes of the embodiments of the above methods. Any references to memory, storage, databases, or other media used in the embodiments provided in this application can include non-volatile and / or volatile memory. Non-volatile memory can include read-only memory (ROM), programmable ROM (PROM), electrically programmable ROM (EPROM), electrically erasable programmable ROM (EEPROM), or flash memory. Volatile memory can include random access memory (RAM) or external cache memory. By way of illustration and not limitation, RAM is available in various forms, such as static RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), dual data rate SDRAM (DDRSDRAM), enhanced SDRAM (ESDRAM), synchronous link DRAM (SLDRAM), Rambus direct RAM (RDRAM), direct memory bus dynamic RAM (DRDRAM), and memory bus dynamic RAM (RDRAM), etc.

[0180] The technical features of the above embodiments can be combined in any way. For the sake of brevity, 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, they should be considered to be within the scope of this specification.

[0181] The embodiments described above are merely illustrative of several implementation methods of this application, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the invention patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this application, and these all fall within the protection scope of this application. Therefore, the protection scope of this patent application should be determined by the appended claims.

Claims

1. A method for constructing a quantum resonant cavity, characterized in that, The method for constructing the quantum resonant cavity includes: Obtain the resonant cavity structure diagram and the corresponding resonant cavity shape parameters; Decompose the resonant cavity structure diagram to obtain at least one resonant cavity path diagram, wherein the resonant cavity path diagram includes a first path diagram, a second path diagram parallel to the first path diagram, a third path diagram at the bottom of the resonant cavity structure diagram and / or a fourth path diagram and a fifth path diagram at the top of the resonant cavity structure diagram; Based on each resonant cavity path diagram, construct the resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram; Based on the resonant cavity shape parameters and the resonant cavity path diagram layout formula, each resonant cavity structure sub-diagram is obtained. The resonant cavity shape parameters include at least one of the following: resonant cavity parameters, coupling part parameters, readout line parameters, positioning parameters, and loop parameters. The resonant cavity structure sub-diagrams are combined to obtain the final resonant cavity structure diagram.

2. The method according to claim 1, characterized in that, The resonant cavity parameters include one or more of the following: readout trace width, readout gap width, coupling radius, and line height; The coupling parameters include one or more of the following: reading loss, coupling end length, reading frequency loss, and coupling spacing. The readout line parameters include the trace width.

3. The method according to claim 2, characterized in that, The first path graph includes regular and irregular parts. The irregular portion of the first path graph includes a starting portion and an ending portion, and the starting portion and the ending portion are constructed separately. The regular part of the first path diagram includes straight lines and arcs, and the straight lines and arcs are connected end to end to form a loop part; The loop portion is drawn cyclically based on the variable values ​​defined by the loop parameters to construct the rule portion of the first path graph.

4. The method according to claim 3, characterized in that, The construction of the regular and irregular parts includes constructing the start part, the loop part, and the end part. The construction of the initial part includes, The starting point for constructing the rule section is determined based on the positioning parameters, the read trace width, and the read gap width. Draw a first vertical line upwards from the starting point of the construction, the length of which is determined by the line height. Draw the first arc clockwise from the end of the first vertical line, draw the first horizontal line horizontally to the right from the end of the first arc, draw the second arc counterclockwise from the end of the first horizontal line, and draw the second horizontal line horizontally to the left from the end of the second arc. Constructing the loop section includes, Draw a third arc clockwise from the end of the second horizontal line, draw a third horizontal line horizontally to the right from the end of the third arc, draw a fourth arc counterclockwise from the end of the third horizontal line, and draw a fourth horizontal line horizontally to the left from the end of the fourth arc. The construction of the ending portion includes, Draw a fifth arc clockwise from the end of the fourth horizontal line, draw a second vertical line vertically upward from the end of the fifth arc, draw a sixth arc clockwise from the end of the second vertical line, and draw a fifth horizontal line horizontally to the right from the end of the sixth arc. The radii of the first, second, third, fourth, fifth, and sixth arcs are determined by the coupling radius and the read trace width, while the lengths of the first, second, third, fourth, and fifth horizontal lines are determined by the read loss coupling end length. The second, third, and fourth arcs are arcs of half a circle, while the first, fifth, and sixth arcs are arcs of a quarter circle.

5. The method according to claim 2, characterized in that, Constructing the second path graph includes, The starting point of the second path diagram is on the same horizontal line as the starting point of the first path diagram. The horizontal distance between the first path diagram and the second path diagram is the width of the reading gap. A second path diagram with the same shape as the first path diagram is drawn.

6. The method according to claim 3, characterized in that, Constructing the third path graph includes, Starting from the construction starting point of the rule section, draw a sixth horizontal line to the right. Starting from the end point of the sixth horizontal line, draw a third vertical line downwards. Starting from the end point of the third vertical line, draw a seventh horizontal line to the left. Starting from the end point of the seventh horizontal line, draw a fourth vertical line upwards. Starting from the end point of the fourth vertical line, draw an eighth horizontal line to the left, forming the right half of the third path diagram of the resonant cavity. Using the vertical line where the end point of the eighth horizontal line is located as the axis of symmetry, draw the left half of the third path diagram, which is symmetrical to the right half of the third path diagram. The right half of the third path diagram and the left half of the third path diagram are combined to obtain the third path diagram.

7. The method according to claim 2, characterized in that, Constructing the fourth path graph includes, The starting point for constructing the fourth path diagram is located vertically upward from the end point of the eighth horizontal line. A ninth horizontal line is drawn horizontally to the left from the starting point of the fourth path diagram. The ninth horizontal line is parallel to the eighth horizontal line, and the distance between the ninth horizontal line and the eighth horizontal line is the reading frequency loss coupling distance. Constructing the fifth path graph includes, The starting point for constructing the fifth path map is located vertically upward from the starting point of the ninth horizontal line. Starting from the construction starting point of the fifth path map, draw a tenth horizontal line horizontally to the left. The tenth horizontal line is parallel to the ninth horizontal line, and the distance between the tenth horizontal line and the ninth horizontal line is the trace width.

8. An apparatus for implementing the quantum resonant cavity construction method of any one of claims 1-7, characterized in that, The device includes: The first acquisition module is used to acquire a resonant cavity structure diagram and resonant cavity shape parameters corresponding to the resonant cavity structure diagram. A decomposition module is used to decompose the resonant cavity structure diagram to obtain at least one resonant cavity path diagram; The module is used to construct the resonant cavity path diagram layout formula corresponding to each resonant cavity path diagram based on each resonant cavity path diagram. The second acquisition module obtains the sub-diagrams of each resonant cavity structure based on the resonant cavity shape parameters and the resonant cavity path diagram layout formula; The combination module combines the various resonant cavity structure sub-diagrams to obtain the final resonant cavity structure diagram.

9. A computer device, comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, characterized in that, When the processor executes the computer program, it implements the steps of the quantum resonant cavity construction method according to any one of claims 1 to 7.

10. A computer-readable storage medium having a computer program stored thereon, characterized in that, When the computer program is executed by a processor, it implements the steps of the quantum resonant cavity construction method according to any one of claims 1 to 7.

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