World Solve

Lunar infrastructure and resource extraction could create new strategic inequalities. The challenge is developing rules that enable science and commercial activity while protecting shared interests and preventing territorial competition. The design must remain functional when standards, trade routes, data access, and diplomatic cooperation are unreliable. The research opportunity is to define measurable success criteria, test the approach in realistic settings, identify failure modes, and create a pathway from prototype to accountable deployment.

Lunar infrastructure and resource extraction could create new strategic inequalities. The challenge is developing rules that enable science and commercial activity while protecting shared interests and preventing territorial competition. The solution must work with limited capital, intermittent services, and local maintenance capacity. The research opportunity is to define measurable success criteria, test the approach in realistic settings, identify failure modes, and create a pathway from prototype to accountable deployment.

Moon dust particles are sharp, electrostatically charged, and easily adhere to spacesuits and machinery. Electrostatic repulsion systems and dust-tolerant mechanical seals are urgently needed for lunar operations.

Current space stations must re-supply metabolic consumables, water filtration media, and trace contaminant gases from Earth. Fully regenerative bio-synthetic life support systems are essential for long-term lunar and Martian outposts.

Navigating craft and rovers on the lunar farside or in deep space relies heavily on congested Earth ground antenna networks. Scalable lunar and deep-space autonomous navigation and timing constellations are needed.

Shipping structural habitat materials from Earth is cost-prohibitive. We must develop 3D-sintering or concrete binder technologies that use local soil to withstand vacuum pressure and severe thermal cycling.

Permanently shadowed craters at the lunar poles reach -240°C, making metals and polymers brittle and prone to shattering. Special cryogenic-resistant alloys and thermal insulation jackets are required.

Solar panels provide zero power during the two-week lunar night, where temperatures drop to -130°C. Regenerative fuel cells and compact nuclear reactors tailored for long lunar nights are required.

While microgravity (0g) is well-studied, long-term multi-generational plant reproduction under lunar (0.16g) or Martian (0.38g) gravity is unverified. Long-term surface greenhouse experiments are urgently needed.

The leading theory involves a massive collision with early Earth, but several details still don't perfectly match the evidence we've collected from lunar samples. A fuller explanation would clarify Earth's own early history too.

Every lunar mission so far has been short-term, relying entirely on supplies brought from Earth. A base that grows its own food, recycles its own water, and generates its own power would prove long-term space settlement is possible.

A persistent gap exists in realizing practical, scalable solutions for industrial-scale lunar propellant and structural material production. Scientific understanding, engineering readiness and institutional capacity remain insufficient to translate promising concepts into durable impact under real-world constraints of cost, skills and governance.

Create scientific and economic models that overcome the lack of commercial incentives for new antibiotics while ensuring equitable global access.