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Qubit Lab

Quantum Computing. Demystified.

Clear insights for business leaders, practitioners, and quantum enthusiasts.

Quantum Computing. Straight Talk.

Qubit Lab makes quantum computing understandable, relevant, and actionable. It is designed for business leaders who need clarity on use cases, timing, and strategic implications, and for practitioners who want to understand the underlying concepts, algorithms, and code.

Through focused videos, practical examples, and advisory-oriented content, the platform connects quantum theory with real-world decision-making in finance, chemistry, and beyond.

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Latest videos

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QCBM for Quantum Finance: Credit Spread Copulas and Tail Risk
FINANCE#19
Released 23 Mar 2026

QCBM for Quantum Finance: Credit Spread Copulas and Tail Risk

Open on YouTube

This video presents a structured quantum-finance use case built around copula-based dependence modeling and quantum scenario generation for credit spread tail risk. It explains how empirical credit spread data can be transformed into a joint dependence distribution, why tail regions are difficult to model with sparse classical observations alone, and how a Quantum Circuit Born Machine can be used to learn and sample from that distribution. The discussion covers the intuition behind empirical, Gaussian, and t-copulas, the role of tail dependence in credit risk, and the practical logic of discretizing the joint space before training a quantum generative model. It also positions the workflow in the broader context of Quantum GenAI, highlighting how quantum models may eventually support scenario generation for rare but relevant financial stress events. The goal is to provide a technically grounded but accessible walkthrough of a realistic quantum-finance modeling pipeline.

Quantum Chemistry 2: Hamiltonian Simulation Algorithms (VQE, ADAPT-VQE, QPE, Trotterization, Qubitization)
CHEMISTRY#18
Released 06 Mar 2026

Quantum Chemistry 2: Hamiltonian Simulation Algorithms (VQE, ADAPT-VQE, QPE, Trotterization, Qubitization)

Open on YouTube

The video builds on the first chemistry introduction and compares the main quantum algorithm choices for estimating molecular ground-state energies in a structured, step-by-step overview. It explains which approaches are relevant on current NISQ hardware, which belong to the fault-tolerant era, and why that distinction matters when assessing realistic timelines for quantum advantage in chemistry. Coverage includes VQE and ADAPT-VQE as near-term hybrid methods, as well as Quantum Phase Estimation with trotterization and with qubitization, including the key tradeoffs in circuit depth, precision, measurement effort, and asymptotic scaling. The goal is to provide a clear framework for understanding what is feasible now and what may become important later. This video was created for an audience seeking a technically informed comparison.

Quantum Chemistry 1: Hamiltonian Simulation
CHEMISTRY#17
Released 06 Mar 2026

Quantum Chemistry 1: Hamiltonian Simulation

Open on YouTube

The video introduces quantum computing for chemistry through the example of molecular ground state problems and explains why chemistry is often considered a leading candidate for eventual real quantum advantage. It outlines how chemical systems are translated into quantum representations, why ground state energy matters in practice, and which core concepts are needed before moving to algorithms. Coverage includes the motivation from chemistry, the idea of the electronic Hamiltonian, and the basic pipeline from molecule to qubits. The video is designed to build intuition without losing scientific rigor. This video was created for a broad audience interested in chemistry and quantum computing.

Quantum Initiatives in Finance: Landscape of Methods and Domains (2021–2025)
FINANCE#16
Released 19 Feb 2026

Quantum Initiatives in Finance: Landscape of Methods and Domains (2021–2025)

Open on YouTube

The video maps publicly documented quantum initiatives in finance from 2021 to the end of 2025 in a structured, non-ranking overview. Each initiative is placed in a grid by business domain and by the quantum method or topic used, showing where activity clusters and how it evolves over time. Coverage spans portfolio allocation, credit risk, derivatives pricing, trading, fraud and AML, and cybersecurity. The method and topic columns include quantum annealing, QAOA, quantum Monte Carlo and quantum machine learning, as well as security efforts such as quantum key distribution and post-quantum cryptography migration programs. A legend section provides partner context and references for each entry. This video was created for a finance audience.

Quantum Readiness for Banking Executives: A Practical Playbook
FINANCE#15
Released 16 Feb 2026

Quantum Readiness for Banking Executives: A Practical Playbook

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The video presents quantum readiness for banks as a practical capability build, independent of betting on a specific hardware timeline. It starts by separating what a bank can control today from what it cannot, then lays out a staged playbook from initial enablement and use case triage to baseline-first benchmarking, vendor assessment, and controlled pilots. Along the way, it highlights the minimum evidence artifacts a leadership team should expect, including a simple executive dashboard and reusable templates to keep efforts measurable and avoid hype. It concludes with a pragmatic 12 to 24 month roadmap that banks can start this quarter. This video was created for a banking audience.

QAOA Masterclass for Finance: From QUBO to Circuits, Mixers, Constraints, and Credible Reporting
FINANCE#14
Released 09 Feb 2026

QAOA Masterclass for Finance: From QUBO to Circuits, Mixers, Constraints, and Credible Reporting

Open on YouTube

This QAOA masterclass is a practical, end to end deep dive into constrained optimization with quantum circuits. A quick word of warning: we go all the way down to the low level, including unitaries, gate mappings, and mixer design details. The session starts from problem formulation and shows how to translate real objectives and constraints into QUBO and Ising models, then builds the corresponding cost unitary and maps it to gates. It then focuses on mixer choices, including why the standard X mixer can fail for constrained problems and how constraint-aware mixers can improve feasibility and sampling quality. We close with parameter optimization patterns, common pitfalls, and what to report so results are credible, such as best feasible samples, feasibility rates, and robustness across seeds. This session was created for finance-style optimization use cases.