From Taking Snapshots to Mapping Entire Landscapes
Labbot’s Dynamic Multimodal Analytical Platform (DMAP™) measures, controls and adapts one sample across every condition, recording fully‑correlated UV/VIS, fluorescence, pH and scattering data in real time — so no critical insights slip away.
Leading Scientists & Labs are Using Labbot
"Mapping an entire condition space would take us months we don’t have, so we grab a few data points and hope nothing important hides between them."
When the System is Complex, a Few Datapoints won’t Cut it
Modern protein and molecular research involves countless variables, but most labs can only afford to run a handful of experiments at a time. That means:
You capture narrow slices of behaviour instead of seeing the system evolve
Switching between instruments introduces drift, noise, and irreproducibility
Key transitions and weak signals are missed entirely, simply because the right conditions weren’t sampled
This patchwork approach slows progress, introduces uncertainty, and creates blindspots in your dataset. Often at the exact moments where the system gets interesting.
Finally, a Way to Map the Full Behavioural Landscape
A DMAP™ helps you go beyond snapshots to draw a continuous, connected map of molecular behaviour. By controlling the sample and synchronising four sensors in one timeline, it reveals how your system shifts, reacts, and stabilises under changing conditions.
Spot Transitions You didn’t Know to Look for
Subtle shifts in behaviour often go unnoticed in single-point experiments. DMAP™ reveals where your system changes state—so you can catch critical transitions before they’re lost.
Trace Behaviour Across Multiple Dimensions
DMAP™ synchronises UV/VIS, fluorescence, pH and scattering across time and condition space. You see how variables interact, not just how they behave in isolation.
Design Better Follow-up Experiments with Fewer Assumptions
With a complete behavioural map, your next experiment doesn’t start from scratch—it builds on known terrain. DMAP™ helps you form sharper hypotheses and test them faster.
Applications
What can You Investigate with Labbot?
Liquid-Liquid Phase Separation
Take full control of your condensates. Labbot can help you fine-tune solution conditions and map out phase behavior in unrivaled detail, giving you a better understanding of how droplets come and go.
Protein Interactions
Take classical methods to new heights with automated measurements. Detect ligand binding or oligomerization with FRET or by tracking changes in intrinsic fluorescence.
Amyloid Aggregation
Maximize the information obtained from each sample and untangle the complexities of fibril growth. By combining full spectrum readouts with light scattering and exercising complete control over sample conditions, you can easily set up your next amyloid experiment.
Thermal Stability
Follow protein unfolding with intrinsic fluorescence or external probes while Labbot scans temperature across your defined range. Easily track any resulting aggregation with static light scattering for a full thermal profile of your protein.
Metal Ion Binding
Labbot's automated titration provides detailed binding curves for a deeper understanding of protein-metal ion interactions. You can obtain your measurement output via absorbance or fluorescence spectroscopy, depending on your assay's needs.
pH Stability
Labbot collects real-time data from an attached pH meter for highly detailed pH titrations, including measuring the isoelectric point of a protein, mapping pH-dependent phase behaviors, or monitoring other pH-affected processes.
Here are some Examples
And some Benefits
Operator Independent
The results are reliable, accurate, and repeatable, with no variation between individual operators. Little training needed to get started.
Reclaim Your Time
While Labbot is busy executing your instructions you could already be thinking about your next experiment.
Minimal Running Costs
Labbot uses no proprietary consumables. Run as many experiments as you want without worrying about access to materials.
You’re in Control
Labbot saves raw data in an accessible state, so you can get the full picture of your experiment no matter what analysis you undertake.
The Labbot Research Team
Cedric
Dicko
Cedric studies silk fiber formation and molecular interactions using advanced biospectroscopy techniques to understand the self-organization of biological systems.
Vito
Foderà
Vito is a biophysicist with extensive experience in method development for the study of biological reactions.
Alexander
K. Buell
Alex is one of the leading scientists in the LLPS field. Labbot was the first instrument he acquired when setting up his new lab at DTU.
Let Us Explore How Labbot can Help Your Lab Accelerate
Do you think Labbot could be of value to you? We do. Book a call with our Application Specialist and let us find out.
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The Labbot Mission
Advancing Science by Giving Pioneers the Tools they Need