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Ending the Sun’s Monopoly: The Future of Stellarator Fusion — Brian Berzin, CEO, Thea Energy

“with Brian Berzin — Co-Founder & CEO of Thea Energy.

What if we could build a fusion reactor that runs continuously—without the instability issues that have plagued the field for years?

Brian Berzin is the Co-Founder and CEO of Thea Energy (https://thea.energy/), a next-generation fusion company focused on advancing stellarator technology—one of the most promising but historically underexplored approaches to magnetic confinement fusion.

Brian brings a unique combination of deep technical and financial expertise, with a background spanning electrical engineering, venture capital, private equity, and investment banking.

Prior to founding Thea Energy, Brian served as Vice President of Strategy at General Fusion, where he helped shape commercialization strategy and led engagement with global capital markets during a pivotal period for privately funded fusion.

Continue reading “Ending the Sun’s Monopoly: The Future of Stellarator Fusion — Brian Berzin, CEO, Thea Energy” | >

Building the Future of Regenerative Medicine

Imagine treating back pain not with surgery, not with opioids—but by using your own stem cells to repair the damage at its source.

Lance Alstodt is President, CEO, and Chairman of BioRestorative Therapies, Inc. (https://biorestorative.com/), a publicly traded regenerative medicine company focused on developing stem cell-based therapies to treat highly prevalent conditions, including chronic lower back pain and metabolic disorders.

With more than 25 years of experience across healthcare investment banking, medical technology, and company building, Lance brings a unique perspective at the intersection of science and capital markets. Prior to joining BioRestorative, he was the founder and CEO of MedVest Consulting, advising healthcare companies on growth strategy, M&A, and capital formation.

Earlier in his career, Lance held senior leadership roles at firms including Leerink Partners, Oppenheimer & Co., Bank of America Merrill Lynch, and JPMorgan Chase & Co., where he specialized in healthcare and medical technology transactions.

At BioRestorative, Lance is leading the development of innovative cell therapies such as BRTX-100, an autologous mesenchymal stem cell therapy currently in Phase 2 trials for chronic lumbar disc disease, aiming to offer a non-opioid, non-surgical solution to one of the most widespread causes of disability worldwide.

#StemCells #RegenerativeMedicine #BackPainRelief #Biotech #HealthcareInnovation #MedicalBreakthrough #ChronicPain #BioTech #FutureOfMedicine #StemCellTherapy #DegenerativeDiscDisease #PainManagement #HealthTech #BiotechStocks #Longevity #MedicalInnovation #CellTherapy #NonSurgicalTreatment #OpioidCrisis #SciencePodcast #HealthcareRevolution

Continue reading “Building the Future of Regenerative Medicine” | >

GLP-1 Receptor Agonists

Glucagon-like peptide-1 (GLP-1) receptor agonists are incretin analogues that promote glucose-mediated insulin release and are used to treat type 2 diabetes mellitus and obesity. GLP-1 receptor agonists and GLP-1 and glucose-dependent insulinotropic peptide agonists have several mechanisms of action, including reduction of gastric emptying, inhibition of glucagon secretion, beneficial changes in the intestinal microbiome, and direct effects on hypothalamic nuclei to enhance satiety (which promotes weight loss). Beyond the impressive effects of GLP-1 receptor agonists on blood glucose levels and body weight, large-scale randomized, controlled trials have shown that GLP-1 receptor agonists reduce cardiovascular risk and slow progression to renal failure in persons at high risk and those with type 2 diabetes.

‘What’s your salary? I told him, and he said no problem, we’ll double. And those days are gone:’ Listening to game dev legends reminiscing in 1989 about the ‘golden days of computer games’ already being over is a trip

This would be like us saying ‘Remember the good old days of, uh, 2016?’

World’s largest quantum circuit simulation for quantum chemistry achieved on 1,024 GPUs

A joint research team between the Center for Quantum Information and Quantum Biology (QIQB) at The University of Osaka and Fixstars Corporation has demonstrated one of the world’s largest classical simulations of iterative quantum phase estimation (IQPE) circuits for quantum chemistry on up to 1,024 GPUs, surpassing the previous 40-qubit limit. The result expands the scale of molecular systems available for the development and validation of quantum algorithms for future fault-tolerant quantum computers, supporting progress toward industrial applications in drug discovery and materials development.

The paper was presented at NVIDIA GTC 2026, held in San Jose, California, March 16–19, 2026.

Overcoming unresolved challenges in drug discovery and developing new materials to address climate change will require advanced quantum chemical calculations beyond the reach of current technology. Against this backdrop, fault-tolerant quantum computers (FTQC) are widely anticipated as a key enabling technology, making it increasingly important to develop and validate, ahead of their deployment, the quantum algorithms that will eventually run on such systems.

High nickel concentrations in Martian bedrock point to potential biosignatures

In 2024, NASA’s Perseverance rover found surprising levels of Nickel in the Martian bedrock of an ancient river channel, called Neretva Vallis, which flowed into the Jezero crater. A new study, published in Nature Communications, has taken a closer look at the data collected from the region and researchers are seeing what could be remnants of ancient Martian life.

Although nickel is not typically thought of as a major component of human life, it is important in many microbial metabolism functions. For example, nickel is a requirement for the Wood-Ljungdahl (W-L) pathway—an ancient, energy-efficient anaerobic process utilized by bacteria and archaea to fix carbon dioxide. The reverse of this process also requires nickel and has been observed in some species of sulfate-reducing bacteria, for the decomposition of organic matter.

“In particular, Ni is an essential component of enzymes used by methanogenic archaea and many bacterial species. Ni is vital to the metabolism of methanogenic organisms, such that a decrease in the Ni content of Earth’s oceans in the Archean is hypothesized to have caused a collapse in atmospheric methane preceding the Great Oxidation Event,” explain the study authors.

Stretching metals can tune catalysis: A new method predicts energy shifts

Heterogeneous catalysis—in which catalysts and reactants are of different phases, e.g., solid and gas—is important to many industrial processes and often involves solid metal as the catalyst. Ammonia synthesis, catalytic converters for automobile exhaust, methanol synthesis, carbon dioxide reduction, and hydrogen production are examples of such metal-catalyzed heterogeneous catalysis.

The electronic structure of metal surfaces governs the adsorption of reactants and intermediates, and thus the catalytic activity. For this reason, strain engineering —which tunes the electronic structure of a metal catalyst by stretching or compressing its crystal lattice—has emerged as an important strategy for enhancing catalytic performance. Unfortunately, scientists have not been able to quantify how metal strain influences adsorption energies and reaction barriers across different metal catalysts, thereby limiting the rational design of catalysts with desired properties.

To address this challenge, a research team from the Lanzhou Institute of Chemical Physics (LICP) of the Chinese Academy of Sciences has developed a method to predict how strain modifies adsorption energies and reaction barriers across diverse metal systems. The study is published in the journal Cell Reports Physical Science.

Terraforming Mars: Modeling engineered aerosols to warm the planet

Whenever humans arrive on Mars, they’re going to find it a difficult place to exist. Mars is cold, with an average surface temperature of −55°C; temperatures can plunge to −125°C with dust storms lasting months; its atmosphere is very thin and almost all carbon dioxide; and all the water is frozen and mixed with ice made of CO2. Oh, and solar radiation will be hazardous on Mars’ surface since the planet has no ozone layer to block ultraviolet radiation, especially so during solar flares. Disneyland it is not.

New Martians will need to live underground until, someday, maybe, Mars can be terraformed to, if not quite looking like Earth, at least a planet more hospitable to fragile human creatures.

There are arguments for and against terraforming Mars. If humans do terraform, one of the first suggestions is to increase Mars’ greenhouse effect by melting the CO2-ice caps.

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