Research

Advancing computational science through rigorous research.

Spacefield conducts research in computational molecular science, mathematical modelling and scientific computing to develop transparent computational methods, reproducible software and scientifically grounded technologies that support molecular discovery and experimental research.

Our research connects theoretical foundations, computational methods, software implementation, validation and publication so that scientific claims remain linked to reproducible evidence.

Evidence Traceable computational research
Theory Code Data Models Benchmarks Reports
Research philosophy

Research should produce knowledge that can be examined, reproduced and improved.

Spacefield conducts computational research that combines mathematical modelling, scientific computing and computational molecular methods to develop transparent, reproducible and scientifically traceable technologies.

Research begins with a scientific question and progresses through mathematical development, computational representation, software implementation and controlled evaluation. Where empirical data are used, models are benchmarked and interpreted within clearly defined scope and limitations.

Computational methods are designed to support scientific investigation rather than replace experimental evidence. The value of the research lies not only in predictive performance, but also in whether methods, assumptions, artefacts and results can be examined, reproduced and improved.

Explicit assumptionsScientific and computational assumptions should be stated rather than hidden.
Controlled evaluationValidation and locked testing should remain separate from model development.
Reviewable outputsResults should preserve model identity, configuration and relevant limitations.
Research method

A disciplined path from concept to scientific release.

Each programme may differ in scientific detail, but the underlying research process follows a consistent sequence of definition, implementation, evaluation and release.

01

Define the question

Specify the scientific endpoint, intended use, assumptions and limits of the investigation.

02

Formulate the representation

Develop mathematical, structural or mechanism-informed quantities relevant to the problem.

03

Implement and test

Translate the representation into software with unit tests, invariance checks and failure handling.

04

Benchmark

Compare against appropriate baselines using predefined data partitions and evaluation metrics.

05

Validate

Assess generalisation, uncertainty, reproducibility and known limitations under controlled conditions.

06

Freeze and report

Preserve code, model identity, manifests, hashes, documentation and scientific conclusions.

Research programmes

A connected research portfolio from theory to applied molecular technologies.

Spacefield's research programme connects fundamental mathematical work, computational molecular methods, software implementation and applied prediction technologies. Each programme contributes to a broader scientific architecture rather than operating as an isolated research activity.

01
Foundational research

Fundamental Research

Theoretical and mathematical work that develops the formal foundations used across Spacefield's computational research.

  • Spacefield Transformation Theory
  • Mathematical modelling
  • Operator-based representations
  • Computational foundations

Public papers will distinguish established derivations, modelling assumptions, conjectures and proposed interpretations.

02
Computational research

Computational Molecular Research

Research that translates mathematical and scientific concepts into molecular representations, descriptors and reproducible computational methods.

  • SFT Molecular Foundations
  • SFT-Core
  • Descriptor engines
  • Molecular representations

Descriptor usefulness is assessed empirically; theoretical motivation alone does not establish predictive value.

03
Platform research

Applied Molecular Technologies

Endpoint-specific computational methods developed as research software and integrated into the SFT Molecular Platform.

  • SFT-pKa
  • SFT-logP
  • SFT-Solubility
  • SFT-BBB
  • SFT-ADMET
  • SFT-Binding

Scientific position: Computational research and prediction support scientific investigation, candidate prioritisation and hypothesis generation. They do not replace laboratory experiments, biological assays, safety studies or independent experimental validation.

04
Evaluation research

Future Research

Longer-term research directions that extend Spacefield's computational framework into broader molecular and scientific applications.

  • Molecular optimisation
  • Multi-target discovery
  • Protein modelling
  • Advanced computational molecular systems

A benchmark result is interpreted within the scope of its dataset, split, endpoint and evaluation protocol.

05
Engineering research

Reproducible scientific software

Research methods are progressively converted into versioned, testable and deployable software so that computational claims can be linked to executable artefacts.

  • Stable APIs, batch workflows and command-line tools
  • Automated tests and predictor-parity checks
  • Dependency control and release packaging
  • CSV, JSON, PDF, logs and machine-readable reports

A software release records implementation state; it does not by itself establish scientific or clinical validity.

06
Translational direction

Computational prioritisation

Investigation of how integrated molecular predictions can support candidate comparison and the design of focused experimental programmes.

  • Multi-parameter candidate profiles
  • Agreement and disagreement across prediction engines
  • Target-aware ranking and filtering workflows
  • Interfaces for academic and industry collaboration

Computational prioritisation supports decisions about what to test; it does not demonstrate biological efficacy or safety.

Benchmarking and validation

Performance claims require controlled evidence.

Spacefield's evaluation framework is designed to reduce common sources of inflated performance and to preserve a clear boundary between development decisions and final testing.

Development

Training partition

Fit candidate models and establish the implementation pipeline without consulting locked test outcomes.

Selection

Validation partition

Compare authorised algorithms and choose a frozen approach under a predefined selection plan.

Final assessment

Locked test partition

Evaluate the frozen method only after development and selection decisions have been completed.

Generalisation

External evaluation

Where suitable data exist, examine performance on an independent dataset or deployment context.

Credible baselines

New descriptors and models should be compared with appropriate established representations, simple controls and relevant combined systems.

Leakage control

Duplicate molecules, closely related records, target overlap and preprocessing decisions require explicit handling to avoid optimistic estimates.

Δ

Multiple metrics

Regression and classification performance should be described through metrics appropriate to the endpoint, data balance and intended use.

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Uncertainty and failure

Research reporting should include failed inputs, missing values, out-of-domain cases and uncertainty where the method supports it.

Repeatability

Seeds, environments, dataset fingerprints and execution manifests help determine whether a reported result can be reproduced.

Scope-aware conclusions

Claims should remain bounded by the dataset, model, endpoint, population and evaluation design used in the study.

Research evidence

What accompanies a credible computational result?

A metric is only one part of the evidence. Reviewable research also needs context, provenance and implementation records.

For public studies and software releases, Spacefield aims to connect scientific conclusions with the artefacts required to understand and reproduce the work, subject to dataset licences, confidentiality, intellectual-property protection and responsible disclosure.

01
Scientific record

Research question, assumptions, endpoint definition, methods and limitations.

02
Data record

Dataset identity, licence, inclusion criteria, preprocessing and partition fingerprints.

03
Model record

Descriptor version, algorithm, parameters, training procedure and model hash.

04
Execution record

Environment, configuration, runtime, warnings, failures and generated artefacts.

05
Evaluation record

Metrics, baselines, confidence intervals where available and error analysis.

06
Release record

Version, changelog, integrity manifest, citation information and preservation location.

Publications and research records

Publications, software and scientific records.

Spacefield research outputs are organised so that theoretical work, software, validation evidence and reproducibility records remain distinguishable and citable. Public records will be linked to appropriate repositories and DOI-backed releases as they become available.

Preparing public release

Publications

Scientific papers and formal research manuscripts.

  • Peer-reviewed journal articles
  • Preprints
  • Conference papers
Planned public research

Software & Releases

Versioned computational artefacts that make research methods executable and reviewable.

  • Versioned software packages
  • Platform releases
  • SDKs and developer resources
  • APIs
Release-linked records

Validation & Scientific Records

Evidence and documentation supporting evaluation, traceability and reproducibility.

  • Benchmark reports
  • Validation studies
  • Technical reports
  • DOI archives and reproducibility records
Publication status: items described on this page should not be treated as published until a public record, DOI, journal citation or official release link is provided.
Reproducibility and responsible openness

Open where useful, protected where necessary.

Research transparency does not require the indiscriminate publication of confidential code, proprietary models, licensed datasets or security-sensitive deployment details.

Open

Suitable for public release

  • Research questions and scientific rationale
  • Evaluation methodology and baseline definitions
  • Non-confidential benchmark summaries
  • Version, citation and integrity information
  • Selected examples and public documentation
Controlled

May require protection or restricted access

  • Proprietary source code and model artefacts
  • Confidential molecular workflows
  • Licensed or restricted datasets
  • Partner information and unpublished results
  • Detailed implementation blueprints relevant to IP
Governed

Shared through appropriate agreements

  • Research collaboration materials
  • Private validation packages
  • Pilot-project data and reports
  • Technical due-diligence materials
  • Controlled API or software evaluation access
Research collaboration

Connecting computational development with independent expertise.

Spacefield welcomes carefully defined collaborations that can strengthen evaluation, extend scientific scope and connect computational predictions with appropriate experimental evidence.

Academic collaborationJoint methodology studies, independent evaluation, student projects and publication-focused research.
Experimental validationTargeted testing of computational candidates or molecular-property predictions under agreed protocols.
Industry evaluationPrivate pilot studies, workflow assessment and technical due diligence using defined datasets and success criteria.
Data and benchmark partnershipsCurated datasets, external validation cohorts and domain-specific evaluation challenges.
Continue exploring

From research evidence to versioned software.

Explore the SFT Molecular Platform, review the technology architecture or visit the Version Centre for software and research-release records.