A public reference

Alternative Structures for Research Institutions

When most people think about where research happens, they think of academia or industry. But a growing ecosystem of alternative structures is filling the gaps neither can reach. This site maps them.

Research Systems Shape What Gets Built

Academia and industry are both essential — and both incomplete

If science is fundamentally about experimentation, then we should also be willing to experiment with how research itself is conducted. Rethinking the structures, incentives, and funding models that underpin research institutions could unlock entirely new modes of discovery. This is at the heart of the growing field of metascience.

Universities produce most basic science: curiosity-driven, peer-reviewed, publicly funded. Industry translates discoveries into products. Together they have delivered extraordinary advances. But both are structurally limited in ways that create significant blind spots — and many of the most pressing challenges ahead require exactly the kind of work neither is designed to do.

But some of the most important breakthroughs in science and technology have emerged from environments that were designed differently. For example, Bell Labs produced the transistor and foundational work in information theory under a long-horizon industrial research model that was not constrained by immediate publication or product pressures. Similarly, DARPA enabled high-risk, programmatic research that led to breakthroughs such as the early internet, by funding ambitious bets without requiring traditional academic outputs.

These cases are not exceptions in outcome—they are exceptions in structure.

The Gap

Traditional structures can't do it all

Academic systems tend to reward publication volume and citation impact. Industrial systems tend to prioritize productization and revenue. Both can produce innovation, but both systematically filter out work that is uncertain, long-horizon, or non-incremental.

This duopoly of institutional models and their respective incentives don’t just shape how R&D is conducted; it constrains how we think about what’s possible. In doing so, it caps the ceiling of what research can achieve.

Dimension Academia Industry Gap / Consequence
Funding cycles ~3-year grants. Research is shaped to produce legible, publishable outputs within fixed funding windows. Quarterly performance cycles and 12–24 month fundraising timelines. Work is translated into short-term milestones to support reporting and capital formation. Long-horizon, high-risk research is hard to sustain in both systems.
Metrics & incentives Publications, citations, and tenure in high-impact journals. Profit, growth, and commercial milestones. Pre-competitive outputs (tools, datasets, infrastructure) are under-incentivized; both systems favor predictable, legible progress.
Tolerance for failure Negative results are penalized through funding and career progression; incentives favor publishable success. Failure is tolerated only if it does not threaten capital efficiency or product timelines. Risk-taking and exploratory work are structurally discouraged, limiting "big-if-true" discovery.
Coordination & structure Work is siloed by discipline; cross-disciplinary collaboration is episodic and hard to sustain. Strong cross-functional coordination across scientists, engineers, and product teams when well-run. Academia struggles with sustained coordination; industry coordinates well but within commercial constraints.

Together, these systems are powerful at producing incremental progress and deployable innovation—but leave a gap for long-horizon, high-risk, pre-competitive scientific work.

The Vision

We can design research institutions to do what others can't

The goal is not to replace academia or industry, or to simply make R&D more efficient. It is to build complementary structures that can pursue what neither can: ambitious, coordinated, long-horizon work oriented toward public goods. These institutions would be defined by stable long-term funding, explicit tolerance for failure, and success metrics beyond publications or profit.

Success would look like:

01

Big-if-true Discoveries

Field-shaping breakthroughs that change what is possible — not incremental progress on established problems.

02

Game-changing Technologies

Frontier technological development that transform how societies can sustainably progress and how wellbeing can be improved at scale.

The Solution

Experimentation in research structures isn’t new—but we need more of it

Some institutions have already begun to redesign these constraints.

Example 1:

DARPA is an R&D agency funded by the US Department of Defense. Unlike most government R&D agencies, DARPA has engineered a distinctive incentive environment that is less bureaucratic and more entrepreneurial, systematically favoring risk-taking, speed, and breakthrough outcomes. DARPA hires Program Managers (PMs) as senior technical experts on short-term contracts (~3–5 years) to pursue specific, high-ambition goals, and gives them substantial control over funding allocations across research performers in industry, academia, and contracting organizations.

This structure reshapes incentives in four key ways:

  1. Portfolio-level autonomy. Managing multiple parallel efforts rather than a single grant as a PI—enables active steering, rapid resource reallocation, and iterative course correction across competing technical approaches;
  2. Time-bounded roles with no tenure create urgency to deliver meaningful impact within a fixed window rather than accumulate long-term institutional security;
  3. Reputation becomes the primary currency, so career upside is driven by launching field-defining breakthroughs rather than publishing papers or generating near-term profits, reinforcing originality and high-risk bets; and
  4. Explicit tolerance for failure means leadership expects a significant fraction of programs to fail, as long as they are well-designed, high-risk attempts.

Together, these incentives shift behavior toward proposing and pursuing ideas that would rarely survive traditional peer review, but that have disproportionate upside if they succeed.

DARPA has become the poster child of effective, non-traditional institutional structures for breakthrough R&D and has been extensively studied as such. Its model has increasingly served as a blueprint for new "ARPA-style" agencies in the US and abroad, including ARPA-H, SPRIND in Germany, and ARIA in the UK.


Example 2:

The Howard Hughes Medical Institute is a core-funded, philanthropy-backed research organization that shifts support away from short-term, project-based grants (~3 years) toward long-term investigator funding (typically ~7 years). This structure gives researchers greater freedom to pursue creative, higher-risk work that is less constrained by immediate publication pressures, compared to traditionally NIH-funded science. However, while this model meaningfully rethinks funding incentives, HHMI's underlying institutional structure remains largely academia-shaped.


Example 3:

Another example is the Human Genome Project, which succeeded through large-scale international coordination and sustained funding (planned for 15 years, but completed in 13) rather than competitive grant cycles or private market incentives. While not a research institution itself, the structure of this project enabled a level of standardization, scale, and shared infrastructure that individual labs operating under traditional incentive systems could not have achieved.


An ecosystem of structures, each suited to different needs

Research is not one uniform activity. It includes everything from low-hanging, incremental work to high-risk bets, and from single-disciplined to tightly coordinated, cross-disciplinary efforts. Different structures and incentives are needed for different parts of this ecosystem.

ALTERNATIVE STRUCTURES OPERATE HERE Basic Research Applied Research TYPE OF RESEARCH Short-term Long-term TIME HORIZON Academia Decentralised PI model Industry / Startups Corporate R&D Industrial Labs Bell Labs, Xerox PARC Govt / Mission Labs CSIRO, DOE National Labs Core-funded Nonprofit Institutes Arc Institute, Crick Institute FROs Convergent Research BBNs / FRCs Contract frontier labs ARPA-style Orgs DARPA, ARIA, SPRIND

Positions are approximate and reflect typical operating mode. Industrial Labs are shown as a historical reference — the model is rare today.

The Landscape

Six alternative structures

The following structures represent distinct approaches to organising, funding, and governing research outside of conventional academia and industry. For a comprehensive breakdown and comparison, see Structures.

Industrial Labs
Corporate-funded, research-first

Corporate-funded labs with significant autonomy from business units. Historically among the most productive research environments ever created. The model is rare today but remains a critical archetype. Examples: Bell Labs, Xerox PARC, Ink and Switch.

Government & Mission Labs
Publicly funded, national mandate

Publicly funded institutions with long-term mandates tied to national missions. Own and operate shared infrastructure no individual institution could sustain. Examples: CSIRO, US DOE National Labs, Fraunhofer Society, RIKEN.

Core-funded Nonprofit Institutes
Philanthropic, redesigned incentives

Institutes that redesign incentives and funding structures while retaining PI-like autonomy. Built on the premise that excellent scientists need better conditions, not different people. Examples: Arc Institute, CZI Biohub, Francis Crick Institute, HHMI.

Focused Research Organisations
Mission-driven, time-bound, in-house

Standalone organisations built to execute a specific technical goal with a unified team. CEO-led, milestone-driven, time-bound (~3–7 years). Pursuing public goods rather than products. Examples: E11 Bio, Cultivarium, Parallel Squared (via Convergent Research).

BBNs / Frontier Research Contractors
Contract-based, distributed elite teams

Contract-based networks assembling elite teams across institutions to tackle defined frontier problems. More flexible than FROs; ideal for engineering-heavy work too public-good-oriented for industry. Examples: BBN Technologies, SRI International, MITRE Corporation.

ARPA-style Organisations
High-risk, programme-managed, external

Agencies that fund and coordinate external research teams via empowered programme managers with explicit tolerance for failure. Suited to problems where the right approach is unknown at the outset. Examples: DARPA, ARPA-E, ARPA-H, ARIA (UK), SPRIND (Germany).

Compare all Structures → Browse the list of Institutes