19 tasks · one specimen parser

Every question you can ask a herbarium sheet with a camera.

All of it rests on one primitive: segment the sheet into its regions — organs, label block, determination slips, packet, barcode, colour bar — then run task-specific heads on the right region. One parser, many heads. Contributors bring heads. The parser and the evaluation stay shared.

10 of the 19 heads below have essentially no prior work. That is not an oversight in the field. It is what happens when a discipline’s machine-learning attention goes to the two tasks that publish well.

Type specimens — the sheets that anchor a botanical name

Running now

The first task on this bench works today, on any specimen you point it at

Region detection needs no training data, which is why it already runs on museums this project has never seen. Everything else on this list is built on top of it.

Run it →

Five scales, one pipeline

Seed identification and sheet phenology look like different projects only because nobody draws the ladder between them. A collection is a nested hierarchy of imaged objects, and every vision task in botany attaches to one rung. They share every hard part: find the object in the frame, score a trait, record whose claim it is, never overwrite a human determination.

The hinge is the fragment packet. It sits on the sheet, so the sheet parser finds it — and it holds loose seed and fruit, which is propagule-scale material. Detect the packet and a sheet corpus becomes a seed corpus. That one region is the bridge between a phenology atlas and a seed-identification tool.

  1. 00live

    Collection

    the cabinet

    Aggregate structure: what is held, where the gaps are, which taxa and islands are represented and which are not. Nothing is measured here — this is the scale at which you learn what you cannot yet answer.

    No imaging. Metadata, coverage, sample size.

  2. 01live

    Sheet

    one mounted specimen

    The whole herbarium sheet as photographed: plant, label, apparatus, ageing mount. Region detection happens here, and everything below depends on it — you cannot crop an organ you have not located.

    Standard flatbed or copy-stand capture. Roughly 40 million exist.

  3. 02building

    Organ

    a leaf, a fruit, an inflorescence

    Crops from the sheet, at the resolution where traits are actually measurable. Leaf area, margin type, herbivory, fruit maturity. This is the scale the sheet-level models squint at and miss.

    Derived crops at full sheet resolution, or targeted re-imaging.

  4. 03open

    Propagule

    a seed, a fruit, a spore

    Loose reproductive material, imaged in its own right. Z-stacked seed photography at multiple orientations produces reference sets precise enough to identify an intercepted seed at a port of entry. The fragment packet on a herbarium sheet is where this material already lives, uncatalogued.

    Z-stacked macro, multiple orientations, scale-calibrated.

  5. 04open

    Micro

    a stoma, a trichome, a pollen grain

    Features below the resolution of ordinary specimen photography. Stomatal density tracks atmospheric carbon; trichome and pollen morphology carry taxonomic signal nothing else does. Herbaria are an accidental instrumental record at this scale.

    Microscopy on sampled material. Destructive or semi-destructive.

Every task below runs over sheets like these · browse the collection

01

The plant

Pressed biological material. Traits, organs, damage, reproductive state.

02

The label

Typed or handwritten text. Who, where, when, and what they thought it was.

03

The apparatus

Barcode, colour bar, stamps, mounting tape, fragment packet, determination slips.

04

The artifact

The sheet ageing. Pest damage, mould, adhesive failure, chemical residue.