Organization and Who is Who

• Gabriel Fazito Rezende Fernandes (JSC)

Room: Building 16.4, room 301

Welcome and Introduction to the JSC

• Kristel Michielsen

Room: Building 16.4, room 301

Introduction to Gate-based Quantum Computing

• Dennis Willsch

Room: Building 16.4, room 301 Introduction to quantum bits and quantum gates Programming and Simulating quantum circuits Applications: QFT, Quantum Adder, QAOA

Introduction to Quantum Annealing

• Madita Willsch

Room: Building 16.4, room 301 This talk is a general introduction to quantum annealing. It covers: - how does a quantum annealer work in theory and what can it be used for; - what are the theoretical and practical limitations; - how to solve problems on quantum annealers, in particular D-Wave quantum annealers as the one hosted by JSC; - the basic information about the architecture of D-Wave quantum annealers; - how to formulate an optimization problem as a QUBO or Ising problem; - different encoding strategies; - how to incorporate constraints; - how to embed a (logical) problem onto the given hardware graph (considering physical connectivity); - how to send a problem to the quantum annealer using D-Wave's Ocean SDK and how to interpret the response; Finally, some small examples are presented and the talk ends with a short hands-on exercise.

Introduction to Neutral Atom Quantum Computing

• Jaka Vodeb

Room: Building 16.4, room 301

QUBO Formulation and QAOA: A Tutorial on Encoding and Solving Combinatorial Optimization Problems - Part I

• Jhon Alejandro Montanez-Barrera

Room: Building 16.4, room 301 In this tutorial, we will dive into combinatorial optimization problems and explore how effectively encode these problems using the Quadratic Unconstrained Binary Optimization (QUBO) formulation and how to tackle them using the Quantum Approximate Optimization Algorithm (QAOA).

Introduction of Hands-on Topics Room: Building 16.4, room 301 In this session, the topics for the hands-on sessions will be introduced.

Hardware & Software Setup Room: Building 16.4, room 301

Hands-on Session Room: Building 16.4, room 301

QUBO Formulation and QAOA: A Tutorial on Encoding and Solving Combinatorial Optimization Problems - Part II

• Jhon Alejandro Montanez-Barrera

Room: Building 16.4, room 301 In this tutorial, we will dive into combinatorial optimization problems and explore how effectively encode these problems using the Quadratic Unconstrained Binary Optimization (QUBO) formulation and how to tackle them using the Quantum Approximate Optimization Algorithm (QAOA).

Hands-on Session Room: Building 16.4, room 301

Emulating Quantum Systems

• Kristel Michielsen

Room: Building 16.4, room 301 Full dynamics of a CLOSED quantum spin-1/2 system: gate-based quantum computer & quantum annealer Full dynamics of an OPEN quantum spin-1/2 system: gate-based quantum computer & quantum annealer Solving the time-dependent Schrödinger equation numerically (Part of) our history of emulating quantum computers

Quantum Annealing Applications

• Dennis Willsch

Room: Building 16.4, room 301 Optimization Problems: Airline Scheduling, TSP, Garden Optimization Constraint Problem: 2-SAT Machine Learning Problem: Quantum Support Vector Machine Sampling Problem: Quantum Boltzmann Machin

Quantum Simulation

• Jaka Vodeb

Room: Building 16.4, room 301 I will talk about the first experimental signatures of two-dimensional many-body false vacuum decay in a quantum material emerging from microscopic interactions. We used a programmable noisy superconducting quantum simulator with 2008 qubits in order to perform simulations corresponding to our specific experiment on quantum domain reconfiguration in a topical electronic crystal. We carefully chose a simulator with the same measured noise spectrum to ensure the fidelity of the model correspondence between the two systems, thereby presenting a realization of simulating real-world open quantum systems according to the original vision of Feynman.

Hands-on Session Room: Building 16.4, room 301

Simulating Noise of Quantum Computers

• Kevissen Sellapillay

Room: Building 16.4, room 301 As much as we want to isolate them, we must see quantum machines as open systems. Interactions happen between the quantum machine and its environment leading to decoherence. This effectively give different types of noise at the level of the machine. What are they and how can we take them into account when doing simulation on our classical computer?

Hands-on Session Room: Building 16.4, room 301

Building a Superconducting Quantum Computer

• Rami Barends (PGI-13)

Room: Building 16.4, room 301

Hands-on Session Room: Building 16.4, room 301

Quantum Annealing - A Broader Perspective

• Paul Warburton

Room: Building 16.4, room 301

Hands-on Session Room: Building 16.4, room 301

The Future of Quantum Computing

• Frank Wilhelm-Mauch

Room: Building 16.4, room 301

Wrap-up and Goodbye

• Gabriel Fazito Rezende Fernandes (JSC)

Room: Building 16.4, room 301