Execute quantum many-body simulations via Slurm or local scripts with verification checks.
npx skills add https://github.com/QuantumBFS/quantum.harness --skill solve-quantumbfs
Please help me install this Agent Skill. Skill: solve Source: https://github.com/QuantumBFS/quantum.harness/tree/main/skills/solve Command: npx skills add https://github.com/QuantumBFS/quantum.harness --skill solve-quantumbfs
This Skill provides a structured, expert-verified environment for solving complex quantum many-body research problems, ensuring that computational methods are applied with correct parameters and verification checks.
Ask the skill to compute the ground state of the Heisenberg model for N equals 20 sites.
High-intent search queries and answers about installing and using this skill.
To compute the ground state of a Heisenberg model, this Skill matches your problem to an expert-curated method card, runs the simulation, and generates automated convergence plots and physical observables for your specified sites.
Running quantum many-body simulations is handled by matching your problem to specialized numerical method harnesses like exact diagonalization or MPS, executing via local scripts or Slurm, and verifying results through mandatory checks.
Yes, you can execute quantum physics simulations through Slurm, as the Skill facilitates end-to-end simulation execution via Slurm or local scripts and automatically reports the physical observables from the cluster output.
Automated reporting for gap analysis works by executing the matched simulation workflow and generating a literature-backed interpretation of physical observables, ensuring research integrity through mandatory verification checks.
No, you do not need to manually select numerical methods like QMC or PEPS, because the Skill automatically matches your quantum many-body research problem to the appropriate expert-curated numerical method card.
A key limitation is that automated quantum research workflows enforce mandatory verification checks, meaning you cannot bypass research integrity validation or skip literature-backed interpretation during physical observables reporting.
QuantumBFSMap quantum phase boundaries from finite-size simulation data using bisection refinement.
QuantumBFSValidate quantum simulation results against independent computational methods at identical parameter points.
QuantumBFSPerform exact diagonalization on quantum many-body lattice systems with XDiag.jl.
QuantumBFSOrchestrate quantum paper reproduction with method selection and run.json logging.
