The earth from space

Science

Advancing sunlight-reflection technology through rigorous research, robust data, and open scientific collaboration

The earth from space

Science

Advancing sunlight-reflection technology through rigorous research, robust data, and open scientific collaboration

The earth from space

Science

Advancing sunlight-reflection technology through rigorous research, robust data, and open scientific collaboration

Stardust's current R&D results on technology enabling a complete, safe, controllable, and practical Sunlight Reflection Technology (SRT)

Stardust's current R&D results on technology enabling a complete, safe, controllable, and practical Sunlight Reflection Technology (SRT)

The main goal of Stardust’s R&D is to develop the technology required to build a complete SRT system, allowing a safe, controllable, and practical SRT implementation. This is crucial for enabling governments to make informed decisions on the development and possible implementation of such systems.

Our approach differs from most earlier work in two major respects:


1

We begin with the safety and controllability requirements that any SRT system should meet in order to be considered as a viable option for implementation. Our R&D is focused on designing an SRT system that meets these requirements and allows a practical implementation.

2

We develop the technology enabling a complete end-to-end system, including particle fabrication, lofting, and dispersion, and operational monitoring.

Collaborative Research With Leading Scientists

Collaborative Research With Leading Scientists

Collaborative Research With Leading Scientists

A river

R. Yahav, A. Spector, D. Kushnir, and M. C. Waxman

In collaboration with our colleagues from:

Columbia University

From Particles to Policy: Technical Building Blocks for Multi-State SAI Coordination

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Trees and water

T. Kislev, A. Berkman, G. Schwartz Roitman, K. Neiman, A. Lostier, S. Nayak, A. Goldbourt, D. Avnir, M. N. Romanias

In collaboration with our colleagues from:

Hebrew University, Tel Aviv University, IMT Nord Europe

Engineered amorphous silica particles with minimized heterogeneous uptake behavior for stratospheric aerosol injection

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Sunrise and mountains

Y. Segev, E. Y. Levine, Y. Bar-Yoseph, O. Amsallem, Y. Dagan, E. Laor, S. Rahamim, A. Luski, E. Daniel, E. Hettiarachchi, A. Spector

In collaboration with our colleagues from:

UC San Diego, Technion

Efficient dispersal of submicron solid particles for stratospheric aerosol injection

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Wheat field

Y. Lederer, N. Wygoda, D. Halbertal and B. E. J. Rose

In collaboration with our colleagues from:

SUNY (Albany)

Solid-particle stratospheric aerosol injection: a 2-D modelling exploration of the design space

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Open-source code

Forest

A. Lostier, Y. Segev, T. Kislev, G. Schwartz Roitman, N. Locoge, M. N. Romanias

In collaboration with our colleagues from:

IMT Nord Europe

Uptake of stratospheric species on minerals proposed for stratospheric aerosol injection

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Sunlight shining in a forest

T. Kuzibardov, A. Yaverboim, T. Kislev, E. Abramov

In consultation with our colleagues from:

The amorphous silica industry

Feasibility Study for Industrial Scale Submicronic Engineered Amorphous Silica Particle (SEASP) Manufacturing for Stratospheric Aerosol Injection (SAI)

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