Lifeboat Foundation

This team is on a roll.

Launching aboard Firefly’s Alpha vehicle in 2024, this mission will demonstrate the responsive on-orbit capabilities of our Elytra vehicle. As the first of many missions utilizing multiple Firefly vehicles, the demonstration will lay the groundwork for Firefly’s end-to-end mission solutions, proving our capabilities to rapidly launch, maneuver, and deploy satellites at a time and place of our customers’ choosing.

In support of Xtenti’s follow-on study contract with the NRO, the mission will demonstrate a rapid payload reconfiguration utilizing Xtenti’s FANTM-RiDE payload dispenser prior to launching on Firefly’s Alpha vehicle. Upon launching on Alpha, Firefly’s Elytra vehicle will utilize the FANTM-RiDE dispenser to first deploy commercial rideshare payloads in Sun-Synchronous Orbit, and then perform an on-orbit maneuver and stand ready to deploy U.S. government payloads on-demand.

Continue reading “Elytra Mission 1” »

We need to do more than deflect cyberattacks. We must build the capacity to sustain operations during and after a cyberattack. We need to bounce back stronger than ever.

A solid state turbine may be the next evolution for marine travel, just like Novium is the next evolution of pens.
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Learning from my first design, I created an improved marine thruster that uses magnetohydrodynamic thrust. It took the better part of a month, and plenty of tests. This really pushed my 3D printing skills to the limit, but it also lead to fully functional thruster that outperformed my expectations. Thanks to Onshape for their awesome modeling program. Create a free Onshape account here: https://Onshape.pro/PlasmaChannel.
First MHD thruster video here: • Using Stealth Propulsion for Ocean Tr…

Continue reading “Designing a Futuristic Magnetic Turbine (MHD drive)” »

Throughout history, humans have sought to transcend the ordinary boundaries of consciousness, reaching for experiences beyond the everyday. They did this through various means, including the use of psychedelics and mind-altering substances. These substances have played a profound role in shaping ancient rituals, belief systems, and even governance. From the shamanic traditions of Siberia to the sophisticated ceremonies of the Maya, the use of psychoactive plants and compounds has been a ubiquitous feature of human culture. The influence of these substances extended far beyond mere spiritual exploration; they became intertwined with the very fabric of ancient societies, affecting political structures, social hierarchies, and religious practices. To fully understand their influence, we must study the intricate relationships between psychedelics, ritual practices, and governance in ancient civilizations, examining how these substances were used to achieve altered states of consciousness, connect with the divine, and wield power.

Visions From Beyond: The Role of Psychedelics in Ancient Rituals

Psychedelics have long been associated with religious and spiritual rituals, serving as gateways to the divine or as tools for gaining insight into the cosmos. In many ancient societies, these substances were not merely recreational but were integral to the religious experience, often seen as sacraments that enabled communication with gods or spirits.

Self-assembled molecules are responsible for important cellular processes. Self-assembled structures such as microtubules or actin filaments are key to cell motility: change of shape, division or extension of membranes. These self-assembled entities have the peculiarity of being formed temporarily, since they require energy consumption. Inspired by nature, there is currently an active area of research that attempts to replicate this process of self-assembly artificially, using the so-called chemical reaction networks.

The control of self-assembly by means of chemical reaction networks is based on the activation of a monomer prone to self-assembly, which is then deactivated. In this way, the self-assembled structure requires a continuous energy consumption to perpetuate itself. From a chemical point of view, this energy is provided by a “fuel”, a chemical reagent. Depending on the availability of that energy source, the self-assembly process occurs or not.

Traditionally, highly reactive fuels have been used to carry out the activation, with little control over the deactivation process. This also implies that the activation and deactivation fuels tend to react with each other, making artificial dissipative self-assembly processes ineffective. In nature, these two processes are controlled by catalysts, which increases their efficiency. Thus, the introduction of catalysts in these processes and the control of their activity by external stimuli such as light are highly desirable, since they can limit part of these problems.

Coherent X-ray imaging has emerged as a powerful tool for studying both nanoscale structures and dynamics in condensed matter and biological systems. The nanometric resolution together with chemical sensitivity and spectral information render X-ray imaging a powerful tool to understand processes such as catalysis, light harvesting or mechanics.

Unfortunately these processes might be random or stochastic in nature. In order to obtain freeze-frame images to study stochastic dynamics, the X-ray fluxes must be very high, potentially heating or even destroying the samples.

Also, detectors acquisition rates are insufficient to capture the fast nanoscale processes. Stroboscopic techniques allow imaging ultrafast repeated processes. But only mean dynamics can be extracted, ruling out measurement of stochastic processes, where the system evolves through a different path in phase space during each measurement. These two obstacles prevent coherent imaging from being applied to complex systems.

With its particles in two places at once, quantum theory strains our common sense notions of how the universe should work. But one group of physicists says we can get reality back if we just redefine its foundations.

By Karmela Padavic-Callaghan

In a continuous pursuit to understand the fundamental laws that govern the universe, researchers have ventured deep into the realms of string theory, loop quantum gravity, and quantum geometry. These advanced theoretical frameworks have revealed an especially compelling concept: the generalized uncertainty principle (GUP).

What processes provide energy to the solar wind as it travels away from the Sun and throughout the solar system? This is what a recent study published in Science hopes to address as an international team of researchers investigated the processes responsible for providing energy to the solar wind as it leaves the Sun and traverses the rest of the solar system. This study holds the potential to help astronomers better understand the Sun’s processes, which could also provide insight into the processes of other stars, as well.

“Our study addresses a huge open question about how the solar wind is energized and helps us understand how the Sun affects its environment and, ultimately, the Earth,” said Dr. Yeimy Rivera, who is a postdoctoral fellow at the Center for Astrophysics | Harvard & Smithsonian and lead author of the study. “If this process happens in our local star, it’s highly likely that this powers winds from other stars across the Milky Way galaxy and beyond and could have implications for the habitability of exoplanets.”

For the study, the researchers used solar wind data from NASA’s Parker Solar Probe and the joint NASA-ESA Solar Orbiter collected within two days of each other due to the spacecraft being aligned with each other, enabling this research to be conducted. For context, the Parker Solar Probe is currently orbiting inside the Sun’s corona while Solar Orbiter is orbiting approximately halfway between the Earth and the Sun. In the end, the researchers found the solar wind’s acceleration that occurs between the Sun and the Earth is due to what are called “Alfvén waves”, which transport energy through the solar plasma. However, researchers haven’t been able to measure Alfvén waves until now.