What Would a Truly Global Science Fund Look Like?

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A truly global science fund would finance valuable research regardless of a scientist’s nationality, institutional prestige, discipline, or access to established grant networks. It would pool resources internationally, evaluate scientific outputs through transparent procedures, support researchers in underfunded regions, and distribute money according to demonstrated scientific value rather than geopolitical influence.

Such a fund would not merely be a larger international grant agency. It would require a different architecture: global participation, diversified funding, open evaluation, multiple forms of scientific contribution, and safeguards against control by either wealthy donor states or a centralized bureaucracy.

Why Science Needs a Global Funding Mechanism

Science is global in its consequences but largely national in its financing.

Climate systems, infectious diseases, mathematical knowledge, artificial intelligence, biodiversity, energy technology, and fundamental physics do not stop at national borders. Yet most public research funding is allocated by national governments, which understandably prioritize domestic institutions, citizens, industries, and policy objectives.

This creates a structural mismatch:

Humanity depends on global knowledge, but access to research funding is determined primarily by national wealth and institutional location.

The geographic inequality is substantial. UNESCO’s 2026 research and development data release reported that global R&D expenditure rose from 1.71% of world GDP in 2015 to 1.92% in 2023. However, Europe and Northern America invested approximately 2.55% of GDP, while Sub-Saharan Africa invested only 0.38%.

UNESCO has also reported that four out of five countries spend less than 1% of GDP on research and development. The World Bank’s R&D indicator includes expenditures by businesses, governments, universities, and private nonprofit organizations, covering basic research, applied research, and experimental development.

These disparities do not mean that scientific talent is distributed in the same unequal proportions. They mean that a researcher’s opportunity to develop an idea often depends on where that researcher happens to live.

The Defining Principles of a Global Science Fund

A credible global science fund would need to satisfy several principles simultaneously.

Global Eligibility

Researchers should be able to participate regardless of citizenship or country of residence.

Eligibility could not depend exclusively on employment by an accredited university. Independent scientists, nonprofit laboratories, research software developers, data maintainers, and interdisciplinary teams would also need viable routes to funding.

Institutional affiliation may still provide useful information about facilities, ethics oversight, or financial administration. It should not function as a universal gatekeeping requirement.

Scientific Merit Rather Than National Interest

National funding agencies commonly consider industrial policy, regional development, national security, or domestic employment. These may be legitimate governmental objectives, but they are not identical to scientific merit.

A global fund would concentrate on questions such as:

• Does the work increase reliable knowledge?
• Is the result novel, useful, rigorous, or enabling?
• Does it provide infrastructure for other research?
• Can independent experts examine or reproduce it?
• Does it solve a problem whose benefits extend beyond one jurisdiction?

This does not require pretending that scientific value can be reduced to one perfect score. It requires making the relevant dimensions explicit.

A multidimensional approach could separately assess originality, correctness, reproducibility, theoretical importance, practical utility, infrastructure value, and contribution to future work. This is more informative than relying on journal prestige, citation counts, or a single opaque ranking.

Representation Without National Vetoes

A global fund must represent countries and scientific communities, but it should not become a parliament in which each government negotiates for its own share.

One relevant institutional precedent is the Global Fund to Fight AIDS, Tuberculosis and Malaria. Its board has equal voting representation from donor and implementer constituencies, while nongovernmental organizations, affected communities, foundations, and the private sector also participate.

A global science fund could adapt this constituency model. Its governing bodies might represent:

• contributing governments;
• countries with limited research capacity;
• scientific disciplines;
• universities and independent laboratories;
• early-career and independent researchers;
• research users and affected communities;
• philanthropic institutions;
• open-source and open-science organizations.

Representation should shape policies and safeguards. It should not allow governments to suppress inconvenient research or reserve funding for politically favored institutions.

Where Would the Money Come From?

A genuinely global fund should not depend on one donor, country, or revenue mechanism.

Government Contributions

Participating states could contribute according to a formula combining GDP, population, R&D expenditure, and ability to pay.

For example, a country might commit a very small percentage of its public research budget rather than creating an entirely new fiscal burden. Contributions could be voluntary initially and later formalized through an international agreement.

A predictable formula would be preferable to annual political bargaining.

Philanthropic Contributions

Foundations, corporations, universities, and individuals could contribute to either a general pool or designated sub-funds.

Restrictions would be necessary. Donors should be able to support broad areas—such as mathematics, neglected diseases, climate adaptation, or research infrastructure—but should not purchase favorable scientific conclusions.

Funding transparency would be essential. Every major donation, restriction, administrative fee, and disbursement should be publicly traceable.

International or Treaty-Based Financing

In the longer term, countries could establish the fund through a multilateral treaty or intergovernmental organization.

The United Nations’ Pact for the Future calls for stronger international cooperation in science, technology, innovation, and digital governance. UN Sustainable Development Goal target 17.6 similarly calls for stronger North–South, South–South, and triangular cooperation in science and technology.

A treaty-based structure could provide legitimacy and stable commitments. However, it would also introduce diplomatic negotiation, administrative complexity, and the danger of excessive governmental control. A global fund may therefore need to begin as an independent public-benefit institution before becoming part of a formal international framework.

Thematic and Regional Sub-Funds

Not all contributions must enter one unrestricted account.

The institution could maintain:

• a global general-science fund;
• discipline-specific funds;
• regional capacity-building funds;
• emergency research funds;
• replication and verification funds;
• open-data and research-software funds;
• funds for problems neglected by commercial markets.

A donor could select a legitimate purpose without selecting the eventual recipient or controlling the evaluation.

How Should Funding Be Distributed?

The central design question is not merely how to collect money. It is how to distribute it without recreating the weaknesses of conventional research grants.

Prospective Grants

Some science requires money before results are possible. Laboratories need equipment, fieldwork requires travel and logistics, and clinical or experimental research may involve substantial upfront costs.

A global fund should therefore retain prospective grants where they are genuinely necessary.

However, proposal review should distinguish between:

1. the plausibility of a proposed project;
2. the applicant’s capacity to execute it;
3. the scientific value of results already produced.

These are different questions and should not be compressed into a single reputation-based judgment.

Milestone Funding

Large projects could receive money in stages.

Instead of awarding the entire budget based on a speculative proposal, the fund could release additional financing after measurable milestones:

• publication of a protocol;
• collection of an initial dataset;
• completion of a proof component;
• delivery of working research software;
• independent replication of an intermediate result.

Milestone funding reduces risk without requiring every research outcome to be predictable in advance.

Retroactive Funding

A substantial part of the fund could reward completed, publicly inspectable work.

Retroactive funding is particularly suitable for:

• mathematical proofs;
• theoretical discoveries;
• open datasets;
• research software;
• replication studies;
• literature synthesis;
• correction of scientific errors;
• maintenance of shared scientific infrastructure.

This model evaluates what a contribution actually achieved rather than how persuasive its proposal appeared beforehand. The distinction is explored further in retroactive funding versus traditional grants.

Retroactive funding cannot replace all grants. Researchers without independent resources may be unable to produce costly results first and seek payment later. A balanced global system would therefore combine prospective support, milestone payments, and rewards for demonstrated contributions.

Funding Outputs Rather Than Only Projects

Traditional agencies usually fund projects, institutions, or principal investigators. A more precise global fund could finance individual outputs.

A single research program may produce several independently valuable components:

• a hypothesis;
• an experimental method;
• a dataset;
• software;
• a theorem;
• a formal proof;
• a replication;
• a negative result;
• an explanatory review;
• long-term maintenance work.

Treating all of these as one indivisible project obscures who contributed what. It also encourages winner-take-all credit.

A global fund should permit scientific recognition and payment to be divided among contributors. Dependency graphs could identify how later results rely on earlier definitions, datasets, software libraries, or proofs. Payments could then flow not only to the final paper’s authors but also to the maintainers of the intellectual and technical infrastructure on which it depends.

This principle is central to merit-based research funding: rewards should follow identifiable scientific contribution rather than merely institutional position.

Correcting Geographic Inequality Without Lowering Standards

A global fund would face a difficult question: should it apply identical allocation rules everywhere, or actively compensate for unequal scientific infrastructure?

Pure formal equality is insufficient. A researcher with uninterrupted electricity, advanced laboratory equipment, paid database access, experienced grant administrators, and a major university affiliation is not competing under the same conditions as a scientist without those resources.

At the same time, geographic inclusion should not be implemented by relaxing standards of evidence or correctness.

The better approach is to separate scientific evaluation from capacity support.

The fund could apply common standards when assessing claims while providing additional resources for:

• equipment and internet access;
• open-access publication;
• statistical and methodological consultation;
• research administration;
• translation and technical editing;
• participation in international collaborations;
• data preservation;
• independent verification.

This preserves rigor while addressing unequal starting conditions.

Regional quotas may be justified in limited circumstances, particularly for infrastructure and capacity-building funds. They are less suitable as a permanent method for judging completed scientific results.

Open Science as the Default

A publicly oriented global fund should generally require funded outputs to be inspectable.

Depending on the discipline and ethical constraints, expected artifacts might include:

• publications available without subscription barriers;
• data and metadata;
• source code;
• protocols;
• mathematical proof details;
• model documentation;
• conflict-of-interest declarations;
• evaluation reports;
• explanations for funding decisions.

Exceptions would remain necessary for personal data, endangered species locations, security-sensitive information, Indigenous knowledge, contractual limitations, and other legitimate restrictions.

The rule should therefore be open where possible, specifically justified where not.

Open outputs make international evaluation practical. They also allow researchers in countries with poorly funded libraries to use the work. Further principles are discussed in open science funding.

Transparent Evaluation and Appeals

A global fund would lose legitimacy quickly if its decisions were made by an inaccessible expert class or an inscrutable algorithm.

Every significant decision should produce an explanation. That explanation should identify:

• the criteria applied;
• the evidence considered;
• uncertainty and disagreement;
• conflicts of interest;
• reviewer or model limitations;
• the reason for approval, rejection, or payment size.

Applicants should have access to an appeal process based on factual error, procedural unfairness, undisclosed conflicts, or material new evidence.

Appeals should not simply repeat the original review. They should be examined by an independent mechanism with authority to correct decisions.

Evaluation records could become public after removing sensitive information. This would make the fund’s standards observable and allow outside researchers to audit whether comparable cases receive comparable treatment.

Could AI Help Operate a Global Science Fund?

Artificial intelligence could reduce the cost of reviewing an enormous and multilingual stream of scientific work. It could help classify submissions, identify dependencies, detect unsupported claims, compare related literature, recommend reviewers, estimate uncertainty, and generate preliminary evaluations.

But AI should not be treated as an infallible scientific authority.

Models can reproduce biases in their training data, favor conventional terminology, overlook novel frameworks, hallucinate references, and assign unjustified confidence to incorrect judgments. Their outputs must therefore be auditable and contestable.

One possible architecture is AI Internet-Meritocracy, or AIIM, created by World Science DAO. AIIM aims to evaluate useful results and distribute rewards through transparent, automated mechanisms rather than limiting funding to conventional grant competitions.

In a global fund, such a system could serve as an evaluation and allocation layer. It would not need to exercise absolute control. Human experts, adversarial reviewers, governance bodies, and appeal panels could supervise or challenge its decisions.

The essential requirement is that AI-assisted funding remain:

• explainable;
• evidence-linked;
• versioned;
• reproducible where possible;
• open to correction;
• institutionally accountable.

The broader relationship between blockchain governance and science finance is examined in the overview of a decentralized science DAO.

Preventing Capture by Powerful Institutions

Any global fund would attract attempts at capture.

Governments might try to direct money toward national priorities. Prestigious universities might dominate review panels. Major disciplines could crowd out small fields. Donors might seek reputational or commercial influence. Automated systems might amplify existing citation and prestige hierarchies.

Defenses should include:

• published conflict-of-interest rules;
• rotating evaluators and governing members;
• limits on institutional concentration;
• separation of donation and allocation authority;
• public decision records;
• independent audits;
• adversarial testing of algorithms;
• whistleblower protections;
• reproducible financial records;
• accessible appeals;
• periodic constitutional review.

No governance design permanently eliminates capture. The goal is to make influence visible, constrained, and reversible.

What a Global Science Fund Should Not Become

A global fund should not become a single world ministry of science.

Scientific pluralism requires competing methods, institutions, theories, and funding mechanisms. A centralized body with exclusive authority could suppress unconventional work more efficiently than today’s fragmented system.

The fund should therefore coexist with:

• national research agencies;
• university funding;
• private philanthropy;
• commercial R&D;
• discipline-specific foundations;
• grant-making DAOs;
• prizes and challenge programs;
• direct public support for scientists.

Its purpose would be to fill gaps that national and market-based systems systematically leave open—not to abolish every other source of research finance.

It should also avoid guaranteeing equal payments to all researchers. Global access means equal eligibility and fair evaluation, not automatic equivalence among contributions.

A Practical Institutional Architecture

A workable global science fund could contain six layers.

1. Capital Layer

Governments, foundations, companies, and individuals contribute to transparent general or thematic pools.

2. Submission Layer

Researchers register proposals, completed outputs, datasets, proofs, software, replications, or other scientific artifacts using common metadata standards.

3. Evaluation Layer

AI systems and qualified human reviewers evaluate submissions using explicit multidimensional criteria.

4. Dependency Layer

Knowledge graphs record relationships among results, contributors, software, datasets, and prior discoveries.

5. Allocation Layer

Funds are distributed through prospective grants, milestones, prizes, retroactive rewards, and recurring infrastructure payments.

6. Governance and Appeals Layer

A globally representative body maintains rules, audits the system, resolves disputes, and corrects failures without directly choosing every recipient.

These layers should remain partly independent. The organization governing the constitution should not secretly control individual reviews, and major donors should not determine allocations.

How Could Such a Fund Begin?

Waiting for universal governmental agreement would probably delay implementation indefinitely.

A realistic path would be incremental:

1. Establish a nonprofit global funding platform.
2. Accept contributions from individuals and philanthropic institutions.
3. Begin with outputs that are relatively inexpensive to evaluate, such as mathematics, open software, datasets, and replications.
4. Publish evaluation criteria, decisions, payments, and appeals.
5. Add prospective and milestone funding.
6. Create geographically and disciplinarily representative advisory bodies.
7. Invite governments to finance designated pools without controlling individual awards.
8. Develop interoperability with universities, repositories, identity systems, and national agencies.
9. Formalize international commitments after the mechanism has demonstrated that it can operate fairly.

This progression allows experimentation before the system acquires treaty-level authority.

The Real Test of Globality

The word “global” is often applied to organizations that accept international applications while remaining controlled by a small group of wealthy countries and prestigious institutions.

A fund is not truly global merely because researchers from many countries may submit proposals.

It becomes global when:

• a scientist’s nationality is not the primary determinant of opportunity;
• underfunded regions participate in governance rather than merely receiving aid;
• evaluation standards are visible and contestable;
• contributors can receive credit for different kinds of work;
• money can cross borders without political favoritism;
• knowledge produced with public-benefit funding is broadly accessible;
• no donor, government, university, or algorithm possesses unchecked authority.

Conclusion

A truly global science fund would combine international financing with open scientific evaluation, differentiated rewards, geographic inclusion, and enforceable accountability.

It would fund proposals when advance capital is necessary, milestones when projects can be divided, and completed outputs when their value can already be inspected. It would recognize proofs, datasets, software, replication, maintenance, and negative results—not only prestigious papers and principal investigators.

Most importantly, it would treat science as a global public good without creating a centralized monopoly over knowledge.

The required technologies already partly exist. International funds demonstrate that donors and implementers can share governance. Open-science infrastructure makes results internationally inspectable. AI can assist with large-scale evaluation, while transparent ledgers and databases can expose financial and intellectual dependencies.

The unresolved challenge is institutional: creating a system powerful enough to move resources globally, yet constrained enough to remain pluralistic, auditable, and correctable.