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CIRCUIT CODER TEST 3 INSTALL
CIRCUIT CODER TEST 3 SOFTWARE
CIRCUIT CODER TEST 3 PC
CIRCUIT CODER TEST 3 SIMULATOR

CIRCUIT CODER TEST 3 SOFTWARE

All the basic Hardware and Software requirements are previously discussed, you can look it up in the Raspberry Pi Introduction. Here we are using Raspberry Pi 3 with Raspbian Jessie OS.

CIRCUIT CODER TEST 3 INSTALL

Other than that we need to install GPS Daemon (GPSD) library, 16x2 LCD Adafruit library, which we install later in this tutorial.

Memory card 8 or 16Gb running Raspbian Jessie.

CIRCUIT CODER TEST 3 PC

LAN cable to connect the pi to your PC in headless mode.

The goal of this project is to collect location data (longitude and latitude) via UART from a GPS module and display them on a 16x2 LCD, so if you are not familiar with the way the 16x2 LCD works with the Raspberry Pi, this is another great opportunity to learn. Today in this project we will Interface GPS module with Raspberry Pi 3. With the amount of power packed by the Raspberry Pi, it certainly will be quite awesome to build GPS based projects with the same cheap GPS modules and that is the focus of this post. $$|+0\rangle = \tfrac$)ģ.One of the coolest embedded platforms like the Arduino has given makers and DIYers the ability to get location data easily using GPS module and thus build things that rely on location.

Charlie first applies a Hadamard gate to the first qubit, which creates superposition and we get the state: Where the qubit to be sent to Alice is labeled with $A$ and the qubit to be sent to Bob is labeled $B$. This is the entangled state (Bell pair) we mentioned earlier. He then applies CNOT gate ($CX$) using the first qubit as a control and the second as the target. He applies Hadamard gate ($H$) to the first qubit to create superposition.

He initially starts the 2 qubits in the basis state $|0\rangle$. Two qubits are prepared by Charlie in an entangled state. The process starts with a third party, who we'll call Charlie. The teleportation protocol can be thought of as a flipped version of the superdense coding protocol, in the sense that Alice and Bob merely “swap their equipment.” Superdense coding is a procedure that allows someone to send two classical bits to another party using just a single qubit of communication. In other words, we can say it is a protocol that destroys the quantum state of a qubit in one location and recreates it on a qubit at a distant location, with the help of shared entanglement. Quantum teleportation is a process by which the state of qubit ($|\psi\rangle$) can be transmitted from one location to another, using two bits of classical communication and a Bell pair. Quantum teleportation and superdense coding are closely related, to avoid confusion we need to clarify the difference. The Difference between Superdense Coding and Quantum Teleportation Superdense Coding on a Real Quantum Computerġ.Simulating the Superdense Coding Protocol.Superdense Coding and Quantum Teleportation.

CIRCUIT CODER TEST 3 SIMULATOR

We first use Qiskit's simulator to test our quantum circuit, and then try it out on a real quantum computer. This notebook demonstrates the Superdense Coding (SDC) protocol. Quantum Simulation as a Search AlgorithmĮstimating Pi Using Quantum Phase Estimation Algorithm Grover's search with an unknown number of solutions Investigating Quantum Hardware Using Microwave PulsesĮxploring the Jaynes-Cummings Hamiltonian with Qiskit Pulse Introduction to Quantum Error Correction using Repetition Codes Investigating Quantum Hardware Using Quantum Circuits Solving the Travelling Salesman Problem using Phase Estimation

Quantum Edge Detection - QHED Algorithm on Small and Large Images Quantum Image Processing - FRQI and NEQR Image Representations Implementations of Recent Quantum Algorithms Hybrid quantum-classical Neural Networks with PyTorch and Qiskit Solving Satisfiability Problems using Grover's Algorithm Solving combinatorial optimization problems using QAOA Solving Linear Systems of Equations using HHL Classical Computation on a Quantum Computer