QWN-Routing

Download and unzip Simulations.zip.

Repository Structure

1. Q-CPS

src source code root. Under this directory:

a). package algorithmQCPS

• algorithmQCPS/MajorPath.java Construct the initial network and process concurrent requests in the network
• algorithmQCPS/FunctionFindPath.java Find paths for concurrent requests in the network
• algorithmQCPS/CalDis.java Calculate distance between two nodes
• algorithmQCPS/entangle_Swap Perform BSM and establish end-to-end long-distance entanglement
• algorithmQCPS/outPut_result Output the successful paths

b). package runQCPS

• runQCPS/Simulations.java The simulation experiment calculates average residual energy, the number of node, throughput and correct rate in the Q-CPS protocol

c). package RWfileQCPS

• RWfile/GenerateNetworkNode.java Generate a random network

d). package topoQCPS

• topo/link.java Define quantum links in a quantum network
• topo/node.java Define quantum nodes in a quantum network

2. Q-CFPSR

src source code root. Under this directory:

a). package algorithm

• algorithm/MajorPath.java Construct the initial network and process concurrent requests in the network
• algorithm/FunctionFindPath.java Find paths for concurrent requests in the network
• algorithm/CalDis.java Calculate distance between two nodes
• algorithm/LinkDistribute.java Distributing quantum entanglement between adjacent nodes
• algorithm/outPut_Major_path.java Output the major path in P1
• algorithm/repairPath.java Find repair paths in Q-CFPSR protocols.
• algorithm/EntanglementSwap Perform BSM and establish end-to-end long-distance entanglement
• algorithm/outPut_result Output the successful paths

b). package run

• run/Simulations.java The simulation experiment calculates the average residual energy, the number of node, throughput and correct rate in the Q-CFPSR protocols.

c). package RWfile

• RWfile/GenerateNetworkNode.java Generate a random network

d). package topo

• topo/link.java Define quantum links in a quantum network
• topo/node.java Define quantum nodes in a quantum network

3. Q-CFPSR-WR

src source code root. Under this directory:

a). package algorithm

• algorithm/MajorPath.java Construct the initial network and process concurrent requests in the network
• algorithm/FunctionFindPath.java Find paths for concurrent requests in the network
• algorithm/CalDis.java Calculate distance between two nodes
• algorithm/LinkDistribute.java Distributing quantum entanglement between adjacent nodes
• algorithm/EntanglementSwap Perform BSM and establish end-to-end long-distance entanglement
• algorithm/outPut_direct_result Output the successful paths

b). package run

• run/Simulations.java The simulation experiment calculates the average residual energy, the number of node, throughput and correct rate in the Q-CFPSR-WR protocols.

c). package RWfile

• RWfile/GenerateNetworkNode.java Generate a random network

d). package topo

• topo/link.java Define quantum links in a quantum network
• topo/node.java Define quantum nodes in a quantum network

Run demo

1. Build the environment

Install Java(jdk vesion is 15) and eclipse (version is 2021-03 (4.19.0)) for simulation.

2. Download source codes

git clone https://github.com/WeicongHuang/QWN-Routing.git.

3. Run simulations

Unzip Simulations.zip.

1). run QCPS\src\Simulations.java

2). run Q-CFPSR\src\Simulations.java

3). run Q-CFPSR-WR\src\Simulations.java

4. plot figures in our paper

1). Draw histograms of average residual energy, the number of node, throughput and correct rate according to Q-CFPSR/examples/CFPSR__Performance.xls in Q-CFPSR.

2). Draw histograms of average residual energy, the number of node, throughput and correct rate according to Q-CFPSR-WR/examples/CFPSR-WR-Performance.xls in Q-CFPSR-WR.

3). Draw histograms of average residual energy, the number of node, throughput and correct rate according to QCPS/examples/QCPS__Performance.xls in QCPS.