What I Saw, as a Former Blob Media Journalist Who Is a Girl, at the Hill & Valley ForumMay 9
a story about me bumming zyns from christ-loving manufacturing founders who want to build the future
Blake DodgeReaders, Solana is here again to kick this 33rd issue of the White Pill off with an IMPORTANT ANNOUNCEMENT:
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Now, onto the Pill.
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Our knowledge of new materials just expanded in a big way. The future just got more interesting, with the recent publication of two new studies. One is on using the Googleâs AI Deep Mind to simulate millions of theoretically possible new materials. The other is about an autonomous laboratory that will be able to make these materials in the real world and work to understand their properties. As Andrew CĂ´tĂŠ correctly noted, this is âjust the beginning.â Of the millions of possibilities, around 400,000 were predicted to be stable, which the autonomous lab will then set about creating. As humans have currently developed only about 20,000 new materials, this bonanza expands our materials menu by more than an order of magnitude. (Twitter/X) (Interesting Engineering) (Singularity Hub)
Advance in quantum computing. A DARPA-funded team at Harvard developed a new type of qubit, the basic unit of quantum computers, thatâs being referred as a breakthrough for its potential to unlock much more practical and powerful quantum computing. These new qubits are better because they make fewer mistakes, which is a big problem with current quantum computers. This breakthrough could lead to building larger and more reliable quantum computers that can handle much more complex tasks than what has been the quantum computing state-of-the-art up to now.
Gene editing and agriculture. All-In podcast co-host David Friedberg, aka the Sultan of Science, announced that heâll be joining agriculture gene editing company Ohalo as CEO. The company âuses gene editing to completely reimagine agriculture, creating new plant varieties in major crops that were not previously feasible, significantly increasing yields and productivity, ultimately helping farmers make more food using far less land, resources, and capital,â Friedberg said on X. Gene editing in agriculture not only has the potential to solve food scarcity on earth, but could potentially solve the problem of agriculture on Mars, as Mars Society founder Robert Zubrin and I went in-depth on in a previous issue of the White Pill (read it!)
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The White Pill Investment Index tracks investments in companies developing interesting, exciting, forward-thinking products. Deals are sourced using a combination of Pitchbook and reach outs to each company.
Embryo screening breakthrough. In Vitro Fertilization (IVF) is a fertility technique where mature eggs are collected from the ovaries and fertilized with sperm in a lab. The fertilized eggs, called embryos, are monitored by embryologists for a few days after the procedure to assess their health and viability; this is based on growth rate, appearance, and genetic makeup when genetic testing is used. The most promising embryo is chosen for transfer to mom (sometimes multiple embryos are transferred, depending on circumstances), with the aim of increasing the likelihood of a successful pregnancy.
Briefly, genetic testing involves performing a biopsy on the embryo and removing five to seven individual cells from what will form into the embryoâs placenta layer. Couples who opt for embryonic genetic testing have the advantage of seeing which embryos, if carried to term, are unlikely to experience conditions such as Patau Syndrome, a genetic disorder caused by the presence of an extra 13th chromosome that results in heart defects, brain or spinal cord abnormalities, very small or poorly developed eyes, extra fingers or toes, cleft lip or cleft palate, and weak muscle tone, and which causes the majority of babies who have it to die within days or weeks of being born. If the parents have a family history of certain genetic diseases such as Huntingtonâs disease, characterized by physical symptoms like involuntary jerking or writhing movements, difficulties in thinking and psychiatric issues, and which can affect you as early as 30, they can order a test that will determine if their embryo has the specific genetic mutation that causes it.
The fact that we can do any of this is awesome. But probing for specific diseases is categorically limited. If you donât know about a disease in your family history, how can you test for it? Furthermore, you cannot design a genetic probe for de novo mutations â ânewâ genetic mutations that occur randomly during the formation of egg and sperm cells and early stages of embryonic development, which can manifest as genetic disorders â because again, you donât know what youâre looking for. All this adds up to an embryonic screening state-of-the-art that can prevent a pretty narrow range of terrible conditions, many of which are only preventable if you know to look for them.
But this week, Noor Siddiqui and Orchid Health appear to have radically improved the state of the art with âwhole genome reports [that] sequence over 99% of an embryoâs genome, compared to existing options that sequence less than 1%.â Orchid screens for 1200+ monogenic (caused by a single gene) conditions, and âbecause Orchid screens embryos directly, it is able to detect randomly occurring mutations (de novo variants) within an embryo. Because these are randomly occurring, parents would not have a family history of the condition and would not know to screen for it.â
âThese papers showing an ability to read over 99% of an embryoâs DNA is groundbreaking,â said George Church, Professor of Genetics at Harvard Medical School. âFor the first time, comprehensive screening is made possible for genetic forms of neurodevelopmental disorders, congenital anomalies, and cancers prior to pregnancy. Helping empower families with this critical health information is a game-changer. This is the future of preventive medicine and family planning.â
Orchidâs whole embryo screens are now currently available at fertility clinics across the country (sign up here if youâre thinking about it). Below, a sample report Siddiqui shared with us on Thursday. Huge.
Curing paralysis. Five years ago, a team of researchers made quite a bit of progress in paralysis treatment when it was able to regenerate nerve fibers across total (catastrophic) spinal cord injuries in mice. But this wasnât enough to restore function, because the regenerated nerves didnât connect to the correct âtargetsâ on the other side of the spinal cord lesion. But in late November, the team announced progress on this new front after they developed a multipronged gene therapy that âactivated growth programs in the identified neurons in mice to regenerate their nerve fibers, upregulated specific proteins to support the neuronsâ growth through the lesion core, and administered guidance molecules to attract the regenerating nerve fibers to their natural targets below the injury.â Mice with total spinal cord injuries who received this therapy âregained the ability to walk, exhibiting gait patterns that resembled those⌠in mice that resumed walking naturally after partial injuries.â The fixed the targeting problem! Thereâs still a way to go before we can get this therapy to humans, but itâs certainly progress. (EPFL)
Lasers could replace bone saws. Lasers are used in medicine, most prominently in eye surgery, but they have yet to expand into their full potential. That could be changing, with a new technique being developed to replace bone saws with lasers. It uses three separate lasers all focused on the same location. The first acts as a tissue scanner around the site where the bone will be cut, vaporizing tiny patches of tissue at regular intervals and using a spectrometer to identify tissue type â each has its own signal. This creates a map showing exactly where the bone meets soft tissue. Once this precision map is generated, the bone cutting laser turns on, while a third laser measures the cut depths ensuring the cutting laser isnât going deeper than it should. Not until all of this has been completed does the second laser, which cuts bone, activate, and then only in places where bones rather than soft tissue are shown on the map that has just been generated. At the same time, the third laserâan optical systemâmeasures the depth of the cut and checks that the cutting laser is not penetrating more deeply than planned. During the cutting phase, the tissue sensor also constantly monitors whether the correct tissue is being cut.
Work is continuing to make the system more compact, the ideal goal being small enough to fit âinto the tip of an endoscope to carry out minimally invasive operations.â Using lasers more in the medical field is a worthwhile goal as they can reduce the risk of infection, and allow âsmaller and more precise incisions,â allowing the body to heal faster and reducing scaring. (Phys.org)
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Touch grass this weekend.
-Brandon Gorrell
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