Product Path

Products for STED super-resolution.

Start with a fit review. Then choose a module, a custom integrated instrument, or a pilot review.

Product Path

First, check the fit.

We define the microscope geometry, sample constraints, label strategy, target resolution, and validation criteria.

Start

Fit review

Microscope frame, objective, sample format, label set, target feature size, users, budget, timeline, and success criteria.

Outcome 01

Super-resolution module

For compatible inverted confocal microscopes.

View module
Outcome 02

Custom integrated instrument

For experiments that need a complete inverted microscope platform.

View instrument
Outcome 03

Feasibility or pilot review

For sample, dye, validation, or facility-readiness questions.

Review compatibility
Default first step: Fit review.

Compare Paths

Compare the three paths.

Path
Best fit
Typical outcome
Super-resolution module
Labs with a compatible inverted confocal microscope and a clear sample workflow.
STED capability added to the existing inverted microscope.
Custom integrated instrument
Method developers, core facilities, or groups with unusual samples or workflows.
A complete inverted microscope platform designed around the experiment.
Feasibility or pilot review
Teams still proving sample readiness, label fit, acceptance tests, or facility demand.
Build recommendation or stop/go decision.

Product 01

Super-resolution module

A compact STED upgrade for compatible inverted confocal microscopes.

Request compatibility review

Typical scope

Optical integration, excitation and depletion paths, safety review, alignment, software workflow, and commissioning.

What is included

Installation plan, validation samples, training, operating documentation, and support plan.

Best starting sample

Fixed, bright, low-background sample with known confocal behavior and compatible dye.

Product 02

Custom integrated instrument

A complete inverted microscope platform built around a demanding experiment: optics, optomechanics, control software, calibration, acquisition workflow, and validation.

Plan an integrated build

For specialized workflows

Live or fixed samples, unusual mounting, core-facility users, or method-development requirements.

Designed as a system

Objective, stage, beam paths, detectors, controls, and protocol handoff planned together.

Built for transfer

Usable by trained researchers and core-facility staff.

Compatibility Review

What we need to check.

Required information for module and feasibility scoping.

Microscope model

Manufacturer, frame, scan architecture, detector options, objective turret access, and available ports.

Objective and sample

NA, immersion medium, coverslip format, sample thickness, mounting medium, and target structure size.

Labels and channels

Dyes, fluorescent proteins, excitation/emission needs, depletion compatibility, and bleaching behavior.

Physical access

Optical table, enclosure space, cable routing, service clearance, and laser-safety constraints.

Users and throughput

Who will run the system, how often, on what samples, and with what training requirements.

Success criteria

Resolution target, field of view, speed, number of colors, validation sample, and acceptance test.

Project Timeline

From question to working system.

01

Fit call

Sample, microscope, resolution target, users, timeline, and budget range.

02

Design review

Optical architecture, integration constraints, safety, validation plan, and project scope.

03

Build and align

Module or instrument assembly with staged optical and software validation.

04

Commission and train

Acceptance images, operating documentation, training, and support handoff.

Proof Template

Pilot data can go here when cleared.

Format: sample, instrument path, measured result, facility quote, and validation notes.

Coming pilot format

Confocal baseline → STED validation → user handoff

Add paired images, a short method summary, instrument configuration, sample type, and a quote from the facility or lab lead.