{
"cells": [
{
"cell_type": "markdown",
"id": "ff54523e",
"metadata": {},
"source": [
"# Kite Circuit"
]
},
{
"cell_type": "markdown",
"id": "9faf5f96",
"metadata": {},
"source": [
"In this notebook, we try to reproduce the result of the [\"Magnifying Quantum Phase Fluctuations with Cooper-Pair Pairing\"](https://journals.aps.org/prx/abstract/10.1103/PhysRevX.12.021002) paper."
]
},
{
"cell_type": "markdown",
"id": "79f4f387",
"metadata": {},
"source": [
"## Introduction"
]
},
{
"cell_type": "markdown",
"id": "b0117e38",
"metadata": {},
"source": [
"[Smith2022](https://journals.aps.org/prx/abstract/10.1103/PhysRevX.12.021002) designed a superconducting circuit that maginfies quantum phase fluctuations with Cooper-pair pairing. We reproduced the energy spectrum of the Kite circuit. The diagram of the circuit is"
]
},
{
"cell_type": "markdown",
"id": "2a16a877",
"metadata": {},
"source": [
""
]
},
{
"cell_type": "markdown",
"id": "b9b9c440",
"metadata": {},
"source": [
"The parameters for these device in gigahertz unit are as following"
]
},
{
"cell_type": "markdown",
"id": "5c098e65",
"metadata": {},
"source": [
""
]
},
{
"cell_type": "markdown",
"id": "dd27f1f5",
"metadata": {},
"source": [
"## Circuit Description"
]
},
{
"cell_type": "markdown",
"id": "895d6479",
"metadata": {},
"source": [
"Firstly, we import the SQcircuit and the relavant libraries"
]
},
{
"cell_type": "code",
"execution_count": 1,
"id": "bce699a3",
"metadata": {},
"outputs": [],
"source": [
"import SQcircuit as sq\n",
"import numpy as np\n",
"import matplotlib.pyplot as plt"
]
},
{
"cell_type": "markdown",
"id": "451569cc",
"metadata": {},
"source": [
"We define the two inductive loops of the circuit via `Loop` class. `loop1` represents $\\theta_\\text{ext}$ and `loop2` represents $\\varphi_\\text{ext}$."
]
},
{
"cell_type": "code",
"execution_count": 2,
"id": "f2f2dabe",
"metadata": {},
"outputs": [],
"source": [
"# theta_ext:\n",
"loop1 = sq.Loop()\n",
"# phi_ext:\n",
"loop2 = sq.Loop()"
]
},
{
"cell_type": "markdown",
"id": "1e7dcad4",
"metadata": {},
"source": [
"The elements of the circuit can be defined via `Capacitor`, `Inductor`, and `Junction` classes in SQcircuit, and to define the circuit, we use the `Circuit` class. "
]
},
{
"cell_type": "code",
"execution_count": 3,
"id": "5cb243f5",
"metadata": {},
"outputs": [],
"source": [
"C = sq.Capacitor(2.5)\n",
"CJ = sq.Capacitor(6.6)\n",
"JJ1 = sq.Junction(5.9, loops =[loop1])\n",
"JJ2 = sq.Junction(5.9, loops =[loop1, loop2])\n",
"l1 = sq.Inductor(0.36, loops =[loop1])\n",
"l2 = sq.Inductor(0.36, loops =[loop1, loop2])\n",
"L = sq.Inductor(0.23, loops=[loop2])\n",
"\n",
"elements = {\n",
" (0, 1): [l1],\n",
" (0, 2): [l2],\n",
" (0, 3): [L, C],\n",
" (1, 3): [JJ1, CJ],\n",
" (2, 3): [JJ2, CJ]\n",
"}\n",
"\n",
"kite = sq.Circuit(elements)"
]
},
{
"cell_type": "markdown",
"id": "b864cd36",
"metadata": {},
"source": [
"By creating an object of `Circuit` class, SQcircuit systematically finds the correct set of transformations and basis to make the circuit ready to be diagonalized.\n",
"\n",
"Before setting the truncation numbers for each mode and diagonalizing the Hamiltonian, we can gain more insight into our circuit by calling the `description()` method. This prints out the Hamiltonian and a listing of the modes, whether they are harmonic or charge modes, and the frequency for each harmonic in GHz (the default unit). Moreover, it shows the prefactors in the Josephson junction part of the Hamiltonian $\\tilde{\\textbf{w}}_k$, which helps find the modes decoupled from the nonlinearity of the circuit."
]
},
{
"cell_type": "code",
"execution_count": 4,
"id": "7493e1b7",
"metadata": {},
"outputs": [
{
"data": {
"text/latex": [
"$\\hat{H} =~\\omega_1\\hat a^\\dagger_1\\hat a_1~+~\\omega_2\\hat a^\\dagger_2\\hat a_2~+~\\omega_3\\hat a^\\dagger_3\\hat a_3~~-~E_{J_{1}}\\cos(-\\hat{\\varphi}_1+\\hat{\\varphi}_2-\\hat{\\varphi}_3-\\varphi_{\\text{ext}_{1}}-\\varphi_{\\text{ext}_{2}})~-~E_{J_{2}}\\cos(-\\hat{\\varphi}_1-\\hat{\\varphi}_2-\\hat{\\varphi}_3-\\varphi_{\\text{ext}_{2}})$"
],
"text/plain": [
""
]
},
"metadata": {},
"output_type": "display_data"
},
{
"data": {
"text/latex": [
"$------------------------------------------------------------$"
],
"text/plain": [
""
]
},
"metadata": {},
"output_type": "display_data"
},
{
"data": {
"text/latex": [
"$\\text{mode}~1:~~~~~~~~~~~\\text{harmonic}~~~~~~~~~~~\\hat{\\varphi}_1~=~\\varphi_{zp_{1}}(\\hat a_1+\\hat a^\\dagger_1)~~~~~~~~~~~\\omega_1/2\\pi~=~5.96222~~~~~~~~~~~\\varphi_{zp_{1}}~=~1.05e+00$"
],
"text/plain": [
""
]
},
"metadata": {},
"output_type": "display_data"
},
{
"data": {
"text/latex": [
"$\\text{mode}~2:~~~~~~~~~~~\\text{harmonic}~~~~~~~~~~~\\hat{\\varphi}_2~=~\\varphi_{zp_{2}}(\\hat a_2+\\hat a^\\dagger_2)~~~~~~~~~~~\\omega_2/2\\pi~=~4.3598~~~~~~~~~~~\\varphi_{zp_{2}}~=~1.74e+00$"
],
"text/plain": [
""
]
},
"metadata": {},
"output_type": "display_data"
},
{
"data": {
"text/latex": [
"$\\text{mode}~3:~~~~~~~~~~~\\text{harmonic}~~~~~~~~~~~\\hat{\\varphi}_3~=~\\varphi_{zp_{3}}(\\hat a_3+\\hat a^\\dagger_3)~~~~~~~~~~~\\omega_3/2\\pi~=~1.56833~~~~~~~~~~~\\varphi_{zp_{3}}~=~2.05e+00$"
],
"text/plain": [
""
]
},
"metadata": {},
"output_type": "display_data"
},
{
"data": {
"text/latex": [
"$------------------------------------------------------------$"
],
"text/plain": [
""
]
},
"metadata": {},
"output_type": "display_data"
},
{
"data": {
"text/latex": [
"$\\text{parameters}:~~~~~~~~~~~E_{J_{1}}~=~5.9~~~~~~~~~~~E_{J_{2}}~=~5.9~~~~~~~~~~~$"
],
"text/plain": [
""
]
},
"metadata": {},
"output_type": "display_data"
},
{
"data": {
"text/latex": [
"$\\text{loops}:~~~~~~~~~~~~~~~~~~~~\\varphi_{\\text{ext}_{1}}/2\\pi~=~0.0~~~~~~~~~~~\\varphi_{\\text{ext}_{2}}/2\\pi~=~0.0~~~~~~~~~~~$"
],
"text/plain": [
""
]
},
"metadata": {},
"output_type": "display_data"
}
],
"source": [
"kite.description()"
]
},
{
"cell_type": "markdown",
"id": "940b972c",
"metadata": {},
"source": [
"To determine the size of the Hilbert space, we specify the truncation number for each circuit mode via `set_trunc_nums()` method. Note that this is a necessary step before diagonalizing the circuit."
]
},
{
"cell_type": "code",
"execution_count": 5,
"id": "969f0c43",
"metadata": {},
"outputs": [],
"source": [
"kite.set_trunc_nums([15,15,15])"
]
},
{
"cell_type": "markdown",
"id": "a776cdf3",
"metadata": {},
"source": [
"## Circuit Spectrum"
]
},
{
"cell_type": "markdown",
"id": "02ae29ba",
"metadata": {},
"source": [
"We calculate the spectrum of the circuit for $\\theta_\\text{ext}=0$ and sweep $\\phi_\\text{ext}$."
]
},
{
"cell_type": "code",
"execution_count": 6,
"id": "c4c4494f",
"metadata": {
"scrolled": true
},
"outputs": [],
"source": [
"n_eig = 7\n",
"phi_ext = np.linspace(-0.25, 1.25, 30)\n",
"\n",
"spec = np.zeros((n_eig, len(phi_ext)))\n",
"\n",
"for i, phi in enumerate(phi_ext):\n",
"# print(i)\n",
" loop1.set_flux(0)\n",
" loop2.set_flux(phi)\n",
" spec[:, i], _ = kite.diag(n_eig=n_eig)"
]
},
{
"cell_type": "code",
"execution_count": 7,
"id": "1615d0ce",
"metadata": {},
"outputs": [
{
"data": {
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\n",
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