the human genome is 3 billion letters.
but less than 2% codes for proteins.
the other 98% is the regulatory machinery:
expression timing, chromatin architecture, RNA splicing, 3D folding etc
until now, we've been functionally blind to how it works.
AlphaGenome changes that 2/
the core breakthrough: they solved a fundamental tradeoff.
old models had to choose:
- long-range vision, low resolution (blurred)
- sharp resolution, tiny context (myopic)
AlphaGenome does both.
1 million base context
1 bp resolution
simultaneously
3/
what it predicts from pure sequence:
- gene expression across tissues
- splicing sites, usage, junctions
- chromatin accessibility (ATAC, DNase)
- histone modifications
- TF binding
- 3D contact maps
you input DNA, it outputs the functional state
4/
benchmarks are unmatched:
- beats specialist models in 22/24 track tasks
- outperforms others in 24/26 variant predictions
- predicts faster, with half the compute of Enformer
and unlike any other model, it does everything in one pass 5/
this isn’t academic abstraction.
they tested it on TAL1 mutations in T-ALL leukemia.
AlphaGenome predicted:
- creation of a MYB motif
- enhancer activation
- increased H3K27ac
- gene upregulation
a single base change → full regulatory cascade
6/
this is the first model that:
- understands splicing at junction, site, and isoform levels
- sees regulatory interactions across 1Mbp windows
- predicts impact of variants in the non-coding genome
- resolves cause → mechanism → consequence
at single-nucleotide granularity
7/
use cases
- identify root causes of rare disease
- simulate mutations before testing
- design synthetic DNA with tissue-specific control
- prioritize therapeutic targets from GWAS
- predict off-target effects at the regulatory layer
the new backend for genomics 8/
obv there are limits:
- 100kb distal interactions still weak
- not calibrated for personal genomes (yet)
- doesn’t predict full phenotypes, only molecular outputs
- not clinical-grade (yet)
but this is version 1. trained in 4 hours. on half the compute of Enformer
9/
the real innovation isn't just accuracy, it's unification.
before you'd need 10+ models to get a partial view of what a mutation does. now: one model, one API call, full resolution.
and because it's general-purpose, it can be fine-tuned for any context
10/
deepmind is releasing API access for researchers now. full model to follow.
this is bio/acc baby
first AlphaFold solved protein structure.
now AlphaGenome makes gene regulation computable
11/
every failed therapy. every rare disease. every complex trait.
all of them start with misinterpreted DNA.
now we can finally see the system
12/
and when you can see a system clearly, you can begin to design it.
biology stops being mysterious. it starts becoming programmable.
this is the transition from description → control. AlphaGenome is the turning point
13/
every disease has a regulatory fingerprint
every gene therapy fails when we misread context, and every mutation is a hypothesis waiting to be tested.
AlphaGenome is a general-purpose interpreter
scientists analyzed dust from 2,000 u.s. homes. 45 toxic chemicals in nearly every single one. 10 of these were in over 90% of samples. right now, you're breathing flame retardants from your couch. your body is absorbing them through your lungs and skin.
these chemicals are endocrine disruptors leaching from your furniture, electronics, and flooring. every time you sit down, walk across carpet, or disturb dust, you're creating an aerosol of hormone-disrupting chemicals.
2/
the mechanism is bioaccumulation. these chemicals are lipophilic - they love fat. when you inhale this dust, they bypass your liver's detox systems and deposit directly into your adipose tissue. your body fat becomes a storage depot for synthetic hormones.
3/
women who had c-section have a 3mm thick web connecting the scar to their shoulder.
surgeons at mount sinai tracked 247 women post-surgery. 73% developed shoulder pain 2-7 years later. same side as the incision.
no injury. just physics. 1/
they used 3D ultrasound to watch what happens.
scar tissue forms a fascial dam - tissue 40% denser than surrounding areas. this creates a pull of 2.3 pounds of constant tension traveling up through your deep abdominal fascia.
2/
the path is measurable: from surgical site → through transversalis fascia → across the diaphragm at T8-T10 → into the shoulder capsule via the phrenic nerve pathway.
one continuous sheet. 1.2 meters of connected tissue.
3/
every time you do a bicep curl 30% of your strength is leaking sideways and ends up in your leg.
biomechanics researchers finally measured it only a couple of years back
everyone’s sharing this thread on "cognitive debt" as if it was anything but garbage
of course it sounds deep with the "BREAKING," "let that sink in," "AI is making us dumber"
but the paper's methods are sloppy, the experimental design doesn't make sense and it's only goal is to fearmonger while not saying anything useful
wait, academics have interests in telling people that AI bad?! what?!
shocked_pickachu_face.jpg
the paper claims that using AI to write leads to
– weaker brain activation
- lower memory
– reduced cognitive “ownership”
the problem is that the study doesn’t measure learning, like, at all
participants wrote 20-min SAT-style essays
no new info was taught, no concepts tested later, no retention, no transfer, no educational gain measured.
this isn't a “learning task"
it’s a writing sprint
you can’t claim “reduced learning” when you didn’t even try to teach anything
imagine having more sensors in your internal wrapping than on your entire body surface.
researchers realized: this isn't protective tissue.
it's your largest sensory organ.
2/
turns out those 250 million sensors are screaming static 24/7 in modern humans.
like a radio stuck between stations, flooding your brain with noise.
here's where it gets wild.
3/