How to Use
DNA Discovery AI — Jarvis
This is our autonomous AI scientist. Every 12 hours, Jarvis wakes up and runs experiments across four areas of genetic research — all by itself. You don't need to do anything; just scroll up to the gold panel at the top to see what it found.
What it does:
Drug Screening — Invents random drug-like molecules and checks which human genes they interact with.
Mutation Hunting — Picks disease genes (like BRCA1, TP53) and scans for dangerous mutations from real medical databases.
DNA Fingerprinting — Compares DNA sequences to find hidden patterns — sequences that look different but behave the same at the quantum level.
Cross-Domain — Takes novel compounds discovered on the Quantum Alchemy page and tests them against disease genes. This bridges chemistry and genetics automatically.
Click any entry in the Jarvis log to expand it and read the full AI analysis. Entries marked PUBLISHED were significant enough to be recorded on-chain.
Body Map — Tissue Explorer
Click on any body part (brain, heart, eyes, lungs, etc.) to see the key genes that make that organ work. Each gene has a one-line description of what it does. Click a gene name and it will automatically load in the Gene Explorer below — so you can go from "I'm curious about the heart" to reading the full gene profile in two clicks.
Try it: Click "Brain" → click "BDNF" → you'll see the full profile of the gene that grows and maintains your neurons.
Gene Explorer
Type any human gene name (like TP53, BRCA1, or INS) and hit Explore. You'll get its full profile: which chromosome it's on, how many exons it has, what protein it makes, what diseases it's linked to, and an AI explanation of what it all means in plain English.
Don't know a gene name? Use the Body Map above to browse by organ, or try these: TP53 (cancer guardian), BRCA1 (breast cancer), CFTR (cystic fibrosis), HBB (sickle cell).
Mutation Analyzer
Think of mutations as typos in your genetic code. Enter a gene name and this tool searches the ClinVar database (run by the NIH) for known mutations. Each result tells you: what changed in the DNA, whether it's harmless or disease-causing, and which conditions it's linked to.
Try it: Search for BRCA1 to see mutations linked to breast cancer, or CFTR for cystic fibrosis mutations.
Codon Compiler
DNA is written in a 4-letter alphabet (A, T, C, G). Your cells read it in groups of three letters called codons, and each codon maps to one amino acid — the building blocks of proteins. Paste any DNA sequence here (or pick a preset) and the compiler will translate it into a protein, just like your cells do.
Try it: Use the "Insulin Signal" preset to see how the DNA code for insulin gets translated step by step.
DNA Comparator
Compare two DNA sequences side by side to see exactly what changed and whether it matters. The tool highlights every mismatch, tells you if the change affects the protein (non-synonymous) or is silent (synonymous), and flags any mutations that create a premature stop signal (nonsense).
Think of it like a code diff — but for genetic code. Great for understanding how a single letter change in DNA can cause a disease.
Compound-DNA Impact Analyzer
This is a virtual drug testing lab. Enter a chemical compound (as a SMILES code) and the system will tell you: which genes the compound interacts with, whether it's potentially therapeutic or harmful, and its genotoxicity risk (how likely it is to damage DNA).
You can also pick from compounds recently discovered by our Alchemy bot using the dropdown. If the system detects active gene targets, you can click them to explore those genes further.
What's SMILES? It's a text format chemists use to describe molecules. For example, CC(=O)Oc1ccccc1C(=O)O is aspirin. You don't need to know SMILES — just use the dropdown to pick a compound.
Several tools on this page use quantum energy calculations behind the scenes. When you see a blue "Quantum Verification" box in results, it means the system ran a VQE (Variational Quantum Eigensolver) simulation to calculate the ground-state energy of atoms in the DNA. This adds a layer of physics-based verification that classical computers can't easily do.
All results come from real scientific databases: Ensembl (human genome), ClinVar (clinical mutations from NIH), UniProt (protein functions), and PubChem (chemical compounds). The AI explanations are generated by DeepSeek to help you understand the data in plain English.
This is a research and educational tool, not medical advice. The DNA Discovery Bot identifies candidates that could be scientifically interesting — actual drug development requires years of laboratory work and clinical trials. We're demonstrating that genetic code can be explored systematically using quantum computing.