Hadamard product implementation method and device, and storage medium

1. A method for realizing a Hadamard product, comprising:

acquiring a plurality of to-be-treated optical signals with unequal wavelengths;

inputting the to-be-treated optical signals into a wavelength division multiplexer;

by using the wavelength division multiplexer, feeding the to-be-treated optical signals to a micro-ring-resonator component, wherein the micro-ring-resonator component comprises a plurality of micro-ring-resonator groups each of which is formed by two micro-ring resonators with equal radii; and

applying a corresponding electric current to the micro-ring-resonator component, to obtain a result of the Hadamard product according to an outputted light intensity;

wherein the radii of the micro-ring-resonator groups are unequal.

2. The method for realizing a Hadamard product according to claim 1 , wherein the wavelengths of the to-be-treated optical signals correspond to the radii of the micro-ring-resonator groups one to one; and a quantity of the wavelengths of the to-be-treated optical signals is equal to a quantity of the micro-ring-resonator groups.

3. The method for realizing a Hadamard product according to claim 2 , wherein each of the micro-ring resonators comprises one straight waveguide and one micro-ring waveguide.

4. The method for realizing a Hadamard product according to claim 3 , wherein the straight waveguides of all of the micro-ring resonators of the micro-ring-resonator component are a same one shared straight waveguide; and

the shared straight waveguide has an input port and a direct-passing port.

5. The method for realizing a Hadamard product according to claim 4 , wherein the radii of the micro-ring-resonator groups increase sequentially in a direction from the input port to the direct-passing port.

6. The method for realizing a Hadamard product according to claim 5 , wherein a transfer function between a light intensity at the direct-passing port and a light intensity at the input port is between 0 and 1.

7. The method for realizing a Hadamard product according to claim 6 , wherein simultaneously with the step of applying the corresponding electric current to the micro-ring-resonator component, the method further comprises:

controlling the transfer function between the light intensity at the direct-passing port and the light intensity at the input port to reach a target transfer function.

8. A device for realizing a Hadamard product, wherein the device comprises a processor and a memory, and the processor, when executing a computer program stored in the memory, implements operations comprising:

acquiring a plurality of to-be-treated optical signals with unequal wavelengths;

inputting the to-be-treated optical signals into a wavelength division multiplexer;

by using the wavelength division multiplexer, feeding the to-be-treated optical signals to a micro-ring-resonator component, wherein the micro-ring-resonator component comprises a plurality of micro-ring-resonator groups each of which is formed by two micro-ring resonators with equal radii; and

applying a corresponding electric current to the micro-ring-resonator component, to obtain a result of the Hadamard product according to an outputted light intensity;

wherein the radii of the micro-ring-resonator groups are unequal.

9. A non-transitory computer-readable storage medium, wherein the non-transitory computer-readable storage medium is configured for storing a computer program, and the computer program, when executed by a processor, implements operations comprising:

acquiring a plurality of to-be-treated optical signals with unequal wavelengths;

inputting the to-be-treated optical signals into a wavelength division multiplexer;

by using the wavelength division multiplexer, feeding the to-be-treated optical signals to a micro-ring-resonator component, wherein the micro-ring-resonator component comprises a plurality of micro-ring-resonator groups each of which is formed by two micro-ring resonators with equal radii; and

applying a corresponding electric current to the micro-ring-resonator component, to obtain a result of the Hadamard product according to an outputted light intensity;

wherein the radii of the micro-ring-resonator groups are unequal.

10. The method for realizing a Hadamard product according to claim 1 , wherein the micro-ring-resonator is a silicon-based micro-ring-resonator of an All-pass type.

11. The device for realizing a Hadamard product according to claim 8 , wherein the wavelengths of the to-be-treated optical signals correspond to the radii of the micro-ring-resonator groups one to one; and a quantity of the wavelengths of the to-be-treated optical signals is equal to a quantity of the micro-ring-resonator groups.

12. The device for realizing a Hadamard product according to claim 11 , wherein each of the micro-ring resonators comprises one straight waveguide and one micro-ring waveguide.

13. The device for realizing a Hadamard product according to claim 12 , wherein the straight waveguides of all of the micro-ring resonators of the micro-ring-resonator component are a same one shared straight waveguide; and

the shared straight waveguide has an input port and a direct-passing port.

14. The device for realizing a Hadamard product according to claim 13 , wherein the radii of the micro-ring-resonator groups increase sequentially in a direction from the input port to the direct-passing port.

15. The device for realizing a Hadamard product according to claim 14 , wherein a transfer function between a light intensity at the direct-passing port and a light intensity at the input port is between 0 and 1.

16. The device for realizing a Hadamard product according to claim 15 , wherein simultaneously with the step of applying the corresponding electric current to the micro-ring-resonator component, the method further comprises:

controlling the transfer function between the light intensity at the direct-passing port and the light intensity at the input port to reach a target transfer function.

17. The computer-readable storage medium according to claim 9 , wherein the wavelengths of the to-be-treated optical signals correspond to the radii of the micro-ring-resonator groups one to one; and a quantity of the wavelengths of the to-be-treated optical signals is equal to a quantity of the micro-ring-resonator groups.