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Research Program

v1.0 · 2026

Research as
institutional
discipline.

Programs span quantum-informed simulation, advanced material engineering, and precision additive manufacturing. The discipline that produces them is the discipline that earns the right to publish them.

§ 01 / Premise

GS-2026 / SECT_01

The standard is what survives scrutiny.

Research at Grunuss is not a publication strategy. It is the verification mechanism that stands behind every claim the institution makes about energy systems, materials, and simulation. A claim without a documented method, a stated assumption set, and a declared limitation is not yet a result — it is a hypothesis with confidence attached.

The discipline applies to internal investigation and external publication equally. The same template that governs a public whitepaper governs the technical memo that precedes it. Drift between internal informality and external rigor is treated as a structural failure, not a presentation choice.

What follows on this page is the subject matter — what is studied, under what commitments, and with which partners. The process by which a result becomes a claim, and the standards every output must satisfy, are documented on Methodology.

§ 02 / Two layers

GS-2026 / SECT_02

Two layers, one continuous standard.

Methodology at Grunuss has an institutional layer and a technical layer. The institutional layer is invariant — it governs how a result moves from investigation to public release regardless of the technical work that produced it. The technical layer is the computational stack that produces the work, and evolves with the science. Both layers are documented on Methodology.

§ 03 / Areas of inquiry

GS-2026 / SECT_03

Three areas of inquiry.

R.01

Quantum-Informed Simulation

Physics-constrained solver pipelines coupling AI, DFT, and matrix-product-state methods for electronic-scale prediction.

Open questions

  • How far can hybrid AI/DFT/MPS solvers extend predictive fidelity at tractable cost?
  • Which uncertainty quantification regimes hold under multi-physics coupling?
  • Where do empirical surrogates remain admissible without eroding first-principles grounding?

R.02

Advanced Material Engineering

Quantum-metal superhydrides, room-temperature superconducting candidates, and structurally stable functional materials.

Open questions

  • Which hydride compositions remain metastable under realistic operating envelopes?
  • What microstructural signatures predict long-horizon stability?
  • How are simulation-derived material targets validated against measurable observables?

R.03

Precision Additive Manufacturing

Nano-additive deposition processes whose parameters derive from upstream simulation rather than empirical tuning.

Open questions

  • How is simulated-to-produced fidelity preserved across process scales?
  • Which in-process metrologies are sufficient to close the verification loop?
  • What geometry classes remain inaccessible to subtractive methods, and at what cost?

§ 04 / Programs by phase

GS-2026 / SECT_04

Programs by phase.

Grunuss research programs as a phased roadmap — from the currently deployed research surface through stages under development, computational discovery, and deployment-scale design.

Grunuss research programs by phase.
CodeStageStatusScope
01PAaaS — Predictive Analysis as a ServiceActiveForward problem: predict material and system behaviour from first principles. Deployed to qualified partners as the current research surface.
02QSaaS — Quantum Simulation as a ServiceIn developmentInverse problem: derive the structure that realises a target behaviour. Scalable, high-fidelity material design and discovery.
03Energy MaterialsComputational discoveryEngineered material architectures against simulation-derived targets — conductor and storage candidates under computational screening ahead of synthesis.
04Energy SystemsDesign & simulationDeployment-scale generation, transmission, and storage architectures built on validated material specifications.

§ 05 / Methodological commitments

GS-2026 / SECT_05

Five methodological commitments.

These commitments hold across every program and every output. They are postures, not procedures — the procedures are documented on Methodology.

M.01
First-principles modelling
Quantum-mechanical foundations and conservation laws as non-negotiable constraints.
M.02
Hybrid solver composition
AI surrogates bounded by DFT and tensor-network references; never standalone.
M.03
Uncertainty quantification
Published bounds on every predicted observable; absence of bounds disqualifies a result.
M.04
Observed-vs-predicted closure
Manufactured artefacts measured against simulated intent; deviations are recorded, not concealed.
M.05
Reproducibility
Versioned inputs, solvers, and seeds; results re-executable independently of original authors.

Research is how the institution earns the right to claim.

Methodology, publication standards, and validation discipline are the visible surface of the research function. The work that produces them is continuous.