The quantum computing community has grown in the past few years into a one that encompasses a wide range of users from various disciplines and sectors. Rapidly developing quantum technologies allowed researchers and developers to explore quantum computing as a practical tool to achieve their goals. In this talk I will present IBM’s recent roadmap on quantum computing systems development, where we are now with quantum computing applications in research and industry and the recent development of software and capabilities at IBM with Qiskit, an open-source quantum software development kit. At the end of the talk, I will discuss the future directions for the quantum software where we exploit both quantum and classical resources together to maximize the performance of quantum computing.

In this two-part talk, we will first overview the high-level picture of the design and analysis of quantum processors based on superconducting quantum circuits. Until recently, this was known as a tedious and complex process. However, since the introduction of Qiskit Metal (a free open-source software), the process has been simplified, automated, and sped up to where nearly anyone can design a prototype quantum processor in 20 minutes – precisely what we will do together in the second half of this talk.

This lecture introduces the basics of the calculation mechanism of quantum computing using the phenomena of quantum mechanics such as "quantum superposition" and "quantum entanglement"

At this lecture, you will be introduced to Qiskit, which is an open-source SDK to run experiments and develop quantum applications, and its application modules. This will also be an opportunity for you to learn how to use Qiskit for your research, development, and education by overviewing Qiskit's ecosystem, events, and materials.

• 10:00 (15min) |  Qiskit: Building a quantum computing community 

  • Dayeong Kang, Qiskit Advocate, KNU

  • Slide

• 10:15 (10min) | Hybrid Quantum-Classical Machine Learning for Predicting Molecular Energy

  • Youngoh Son, SNU

  • Abstract, Slide

• 10:25 (10min) | Hidden Shift Problem over Bent Functions: Definition, Solution and Implementation

  • Sekang Kwon, Kyunghee University

  • Abstract, Slide

• 10:35 (15min) | Open-source projects and community contributions to quantum computers - in terms of diversity

  • Seung Ju Lee, SNU and IBM Quantum WISET Mentees

  • Abstract, Slide

• 10:50 (10min) | Break

• 11:00 (30min) | Programming and running your first quantum circuit with IBM Quantum Experience

  • Inho Choi, Qiskit Advocate, HKUST

  • Slide, Lab material

• 11:30 (30min) | Parametric superconducting qubit design and analysis with qiskit-metal

  • Gyeonghun Kim, Qiskit Advocate, SNU

  • Slide, Lab material

• 14:00 (15min) | backend verification with qiskit 

  • Jeongwon Kim,SKKU

  • Abstract

• 14:15 (15min) | 20qubit chip design with qiskit metal

  • Youngdu Kim, SKKU

  • Abstract

• 14:30 (15min) | Design scheme for minimizing ZZ crosstalk between superconducting qubits using Qiskit Metal

  • Dowon Baek, SNU

  • Abstract, Recording

• 14:45 (15min) | Exploring an Open-Source Toolchain for Designing Superconducting Quantum Circuits: A Comparison

  • Abeer Vaishnav, Duke Univ.

  • Abstract

• 15:00 (10min) | Break

• 15:10 (15min) A Fast and Scalable Qubit-Mapping Method for Noisy Intermediate-Scale Quantum Computers

  • Sunghye Park, POSTECH

  • Abstract

• 15:25 (15min) | Robust state discrimination using geometric gate

  • Jinwoong Kim, TU Delft

  • Abstract

• 15:40 | (15min) Quantum state tomography for NISQ application 

  • Kyungmin Cho, SNU

  • Abstract

• 15:55 | (15min) Quantum Approximated Support Vector Machine 

  • Siheon Park, KAIST

  • Abstract

• 16:10 (10min) | Break

• 16:20 (15min) | Bridging the gap between theory and implementation via system software construction for quantum computing 

  • Shin Nishio, SOKENDAI

  • Abstract

• 16: 35 (15min) |  Implementation of quantum walks on near-term quantum computers

  • Boseong Kim, Yonsei Univ.

  • Abstract

• 16:50 (15min) | Design of reversible circuits for Arithmetic operations

  • Dr. Manjula Gandhi, Coimbatore Institute of Technology

  • Abstract