Genomes on the BTC blockchain isn't just tech evolution, it's a revolution! 🧬 Secure, immutable, and transparent, it's the future of genomic data preservation. Dive into the genomic era with blockchain and unlock potentials we've only dreamed of. 🧬🔒 ⛓️
https://t.co/LyWfMTR7yb
🌊 Phytoplankton = the invisible engine of life on Earth.
They produce over 50% of our oxygen — more than all the forests combined.
Now you can own a piece of their genome, inscribed on Bitcoin:
👉 https://t.co/lpXNvjnuBH
#Ordinals#Phytoplankton#Bitcoin
A 1.7MB text file containing the 'ACTG' genetic sequence has been losslessly compressed into a 400kb WEBP image, showcasing the true art of nature.
The genome of Prochlorococcus, one of the most vital organisms on our planet, is being inscribed onto the Bitcoin blockchain for eternal preservation.
Additionally, all current Prochlorococcus owners will have the exclusive opportunity to mint any future uploaded genomes for free before they become available to the public.
1/35 minted already
Congratulations to the first owner!
Mint your piece of Prochlorococcus genome here:
https://t.co/dyCak3kB2v
Meet Prochlorococcus, a tiny cyanobacterium powering Earth’s oxygen supply and carbon cycle. Vital for oceans and ecosystems. Mint its genomic Ordinals Inscriptions at https://t.co/zOcbbIbqtU
with help of @ordinalgenesis
The Key Species for Terraforming an Earth-Like Exoplanet
At deGenom, our mission is to preserve the genomic data of Earth’s most vital species, ensuring that we are prepared for the future—whether that involves restoring biodiversity on our home planet or seeding life on distant worlds. As we look toward the possibility of settling an Earth-like exoplanet, certain species will be crucial for terraforming, the process of transforming a planet into a habitable environment. Below, we present the top 10 species that would be essential for establishing a self-sustaining ecosystem on such a planet.
These species have been carefully selected for their ability to thrive in new environments, contribute to ecosystem stability, and lay the foundation for more complex life. Each plays a unique role in creating the conditions necessary for human survival and the flourishing of life.
Top 10 Species for Terraforming
1.Spirulina platensis (Cyanobacterium)
•Role: Oxygen production and nitrogen fixation
•Why: This resilient cyanobacterium can survive in aquatic or moist environments, producing oxygen through photosynthesis and converting atmospheric nitrogen into usable nutrients. It is a pioneer species that can help create a breathable atmosphere and enrich the planet’s soil.
2.Chlorella vulgaris (Green Alga)
•Role: Aquatic primary production and oxygen generation
•Why: As a fast-growing alga, Chlorella produces oxygen in water environments and serves as a primary food source. It complements Spirulina by supporting aquatic ecosystems and enhancing oxygen levels.
3.Bacillus subtilis (Bacterium)
•Role: Decomposition and nutrient cycling
•Why: This bacterium breaks down organic matter, recycling nutrients back into the soil. Its ability to form spores makes it highly adaptable to harsh conditions, ensuring the planet’s soil remains fertile.
4.Rhizobium leguminosarum (Bacterium)
•Role: Nitrogen fixation in symbiosis with legumes
•Why: When paired with legume plants, this bacterium converts atmospheric nitrogen into compounds that enrich the soil, making it essential for plant growth and long-term soil health.
5.Glomus intraradices (Mycorrhizal Fungus)
•Role: Plant nutrient uptake and growth support
•Why: This fungus forms symbiotic relationships with plant roots, improving their ability to absorb water and nutrients. It is critical for helping plants establish in nutrient-poor or unfamiliar soils.
6.Bryum argenteum (Moss)
•Role: Soil formation and moisture retention
•Why: As a pioneer plant, this moss can colonize bare rock, breaking it down to form the first layers of soil while retaining moisture. It prepares the ground for more complex plant life.
7.Festuca rubra (Red Fescue Grass)
•Role: Soil stabilization and primary production
•Why: This hardy grass grows quickly, anchoring soil with its roots to prevent erosion. It also produces food through photosynthesis, supporting the development of a terrestrial food web.
8.Trifolium repens (White Clover)
•Role: Nitrogen fixation and ground cover
•Why: Paired with Rhizobium, this legume fixes nitrogen in the soil while providing ground cover to prevent erosion. It is adaptable and supports biodiversity by creating habitats for other species.
9.Eisenia fetida (Red Wiggler Earthworm)
•Role: Soil aeration and decomposition
•Why: Earthworms improve soil structure by aerating it and breaking down organic matter, which enhances fertility and water retention. They are key to creating healthy, arable land.
10.Bombus terrestris (Buff-tailed Bumblebee)
•Role: Pollination
•Why: As flowering plants like clover and grasses establish, this bumblebee ensures their reproduction through pollination. It is a resilient pollinator that can thrive in diverse conditions, supporting the expansion of plant life.
@allquantor The documentation is not clear about the Curve Token Process. "The process ID of your curve token (distributed via the bonding curve)"
Is this where I need to copy the Token Details/Process ID of the previously sampled Token?
HOMO_SAPIENS_ISOLATE_CHM13_CHROMOSOME_1 compressed from 255MB to 55MB losslessly and we will upload it to the blockchain soon.
For decades, our DNA map was incomplete—like a book with missing pages. But in 2022, scientists finally sequenced the entire human genome with the CHM13 reference!
Why is this a big deal?
It adds 200 million+ missing letters to our DNA blueprint
Unlocks new insights into health, evolution, and genetic diseases
Helps personalized medicine get even better
Think of it as upgrading from a blurry map to a crystal-clear GPS for human genetics!
The CHM13 is a human cell line originally derived from cells of a hydatidiform mole (a tissue from a non-viable pregnancy). This cell line is homozygous, meaning both sets of chromosomes are identical. Because of this, it served as an ideal reference for the Telomere-to-Telomere (T2T) consortium in creating the first fully gapless human genome reference.
#Genomics #DNA #CHM13 #T2T
special thanks to:
@aphillippy@karenmiga@ucscgenomics@genome_gov
Preserving the genetic code of living organisms is vital for maintaining biodiversity and understanding life's complexity.
Genomes hold critical information that drives medical advancements, such as disease resistance and personalized therapies, while also aiding agricultural innovation through resilient crop development.
Additionally, genomic data provides insights into evolutionary history and ecological relationships, essential for addressing climate challenges. Protecting these biological blueprints ensures future generations can harness their potential for scientific, ethical, and sustainable progress.
@Solaria_Project Hello! I would like to talk to the team about collaboration. I tried to write on Telegram, but the Safe Guard bot didn't like me and I was silenced.
An important request to @MagicEden for an easy to build, but very useful feature to use Ordinals Persona for transactions in @MagicEdenWallet!
Details:
https://t.co/V5VorN5ubu
#ordinalspersona