Nanometrix v2.4
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Every step of the EV workflow — in one reproducible workspace.

Nanometrix takes raw single-molecule localisation data from any SMLM instrument, realigns and groups it, runs analysis at scale, and turns the result into shareable reports and predictive models.

01 · Upload & organise

Bring data in from any SMLM instrument.

Export localisations from your acquisition software, drop the CSVs into Nanometrix, and start working. No vendor lock-in, no bespoke import scripts — if your instrument can produce a localisation table, the platform can read it.

  • Raw localisations from any SMLM instrument
  • EV lists from your existing analysis pipeline (e.g. CODI, custom Python or MATLAB scripts)

Group samples by condition, nest populations into projects, and keep the same taxonomy from raw upload through to the final report. Unlimited projects and groups across every tier.

app.nmtx.bio / upload
Compatible instruments
  • ONI Nanoimager
  • Abbelight SAFe 360
  • Abbelight SAFe 180
  • Bruker Vutara VXL
  • Nikon N-STORM
  • Zeiss Elyra
  • ONI AploScope
  • Custom systems
01
Raw

Localisations as acquired.

02
Realigned

Channels brought into register.

03
EVs

Vesicles segmented & identified.

04
Grid

Sample-by-sample comparison.

Hero feature

Channel realignment, automatic.

SMLM channels are usually acquired sequentially or split across the camera, so they drift apart at the nanometre scale. Our realignment algorithm registers channels back onto a common frame in one click — turning misaligned acquisitions into publishable data without manual fiducial work.

misaligned realigned
Channels realigned into register Misaligned channels before realignment
Misaligned Realigned
02 · Quality assessment

Quality-assess your data, from raw localisations to finished views.

Switch perspectives without exporting, re-importing, or reformatting. Inspect points at their native localisation density, then pull back to vesicle-level summaries or sample-level grids.

The same data, reframed for the question you're asking right now.

  • Localisation, vesicle, sample, and project zoom levels
  • Per-channel visualisation modes
  • Linked selections across views
  • Built-in channel realignment
03 · Analyse at scale

Run hundreds of datasets in parallel — without leaving the platform.

Sequential analysis works for a handful of samples. Real cohorts don't. Nanometrix runs analyses in parallel across managed compute, so a 100-dataset library finishes in roughly the time a single dataset used to take.

The pipeline is fully customisable: data realignment, DBSCAN-based vesicle identification, and a complete EV metric panel computed for every vesicle found — tune the steps you need, skip the ones you don't.

  • Channel realignment as a built-in step
  • DBSCAN segmentation to identify EVs
  • Per-vesicle metrics computed automatically
  • Configurable per project — defaults that just work
Benchmark

Time to analyse, by tool

Each dataset ≈ 5M localisations · shorter is better

Python (SciPy) 10 hr
Nanometrix offline 1h 20m
Nanometrix online 1,200× faster than Python 30s

Online execution dispatches work across managed parallel compute — wall-clock stays roughly flat (≈30s) while the offline and Python pipelines scale with cohort size.

What gets measured EV panel

A standard panel of EV metrics — every run, every sample.

Each vesicle is summarised across size, morphology, channel colocalisation, and inter-channel geometry. The same panel runs on every dataset, so cohort-level comparisons are apples-to-apples.

Size

Diameter and equivalent radius across channels.

Colocalisation

Per-EV channel overlap and co-presence.

Morphology

Hollowness, convex ratio, perimeter, area.

Inter-channel geometry

Percentage overlap and distance between channels.

04 · Insight generation

Visualise, compare samples, and uncover insights.

Once a cohort has been analysed, the insight layer takes over. Compare populations side-by-side, run statistical tests across every metric, and export the figures that go straight into a paper or a regulatory dossier.

Overview dashboards

Top-line metrics for any dataset, group, or project.

Pick a selection — a single dataset, a population, or an entire project — and Nanometrix lays out the headline metrics in one dashboard. Mean size, co-localisation rates, single / dual / triple-channel populations, all on the same canvas.

  • Pick the graphs you want and apply filters live
  • View in tandem with the raw data and the EV grid
  • Single, dual, and triple-channel co-localisation breakdowns
  • Export as PDF to share with collaborators
app.nmtx.bio / cohort-A / overview
app.nmtx.bio / cohort-A / compare
Pairwise · Mean diameter
Healthy vs Disease
Cliff's δ
+0.42
p-value
0.003
significant
Comparative dashboards

Compare groups, lanes, and patients side-by-side.

Healthy vs disease. Lane 1 vs lane 2 of an EV chip. Patient 01 vs patient 02. Pick any two — or any N — populations and Nanometrix overlays their metrics on a single graph. Switch chart types, filter on the fly, and let the stats engine tell you whether what you're seeing is real.

  • Overlay groups on a single chart, recolour by category
  • Scatter, KDE, histogram, pie chart — all from the same panel
  • Pairwise comparisons with Cliff's δ & p-values
  • Significance badges per metric, no spreadsheet plumbing
05 · Predict Diagnostics AI

EVs as diagnostic tools — at cohort scale.

Once your library is analysed and grouped into populations, the Diagnostics AI Pipeline trains a tailored predictive model that classifies new samples from their EV profile alone. We work with you on study design, model architecture, and validation — so the result is something you can actually deploy.

Reading list
  • EV signature classification of disease cohorts
    Preprint · 2025
    Read paper →
  • Single-vesicle morphology as a diagnostic feature
    Conference poster · 2025
    Download poster →
  • Multi-site cohort study — methods note
    Working paper · 2026
    Read paper →
06 · Collaborate

Built for groups, not just individual users.

Ideal for labs, core facilities, and enterprise customers that need a shared analysis surface with proper guardrails. A PI can review individual reports per student, set quotas on pooled storage, and allocate short-term licences to rotating users.

  • Per-project membership and roles
  • Pooled storage with per-user quotas
  • Short-term licences for rotating users
  • Read-only share links for external reviewers
Secure by default

Data is encrypted in transit and at rest, stored on access-controlled infrastructure, and every read and write passes through explicit user authorisation. SSO, RBAC, audit trails, and SOC 2 / HIPAA / GDPR coverage on Team & Lab.

Pooled storage
Lab quota
Used 740 GB / 1 TB
Per-user caps
PI · 500 GB · Students · 50 GB
Project · EV-cohort-2026
Cohort A
Project · Methods-paper
Reviewer access
  • EX External reviewer Read-only
  • EX Co-author Read-only
$ nmtx init

Run your first EV analysis in minutes.

Free for individual researchers. Move up when your cohorts, compute, or compliance needs grow.