
AMERIGO: Multi-Angle Dynamic Light Scattering (MADLS) & Multi-Parameter Nanoparticle Analyzer
- High-resolution nanoparticle size and stability analysis
- 3-in-1 technology: DLS, LDE, and in situ analytics for unmatched precision
- Multi-angle measurements (170° 17° & 90°) for better accuracy
- Oxidation-free, solvent-compatible, reusable dip cell electrodes
AMERIGO – an advanced, high-performance nanoparticle characterization platform, designed to deliver multi-modal, cross-validated measurements within a single instrument. Built for both research laboratories and industrial quality control, Amerigo combines high-resolution Multi-Angle Dynamic Light Scattering (MADLS) with Static Light Scattering (SLS) and Electrophoretic Light Scattering (ELS) into one compact, precision-engineered system.
Key Features & Benefits:

High durability reusable electrodes
Proprietary dip cell electrodes are chemically durable, reusable, and compatible with a wide range of solvents and pH levels, reducing maintenance while expanding application versatility.

High-Resolution Data for Greater Analytical Confidence
AMERIGO delivers high-resolution, real-time measurements of nanoparticle size, providing precise characterization and enabling informed decisions across formulation development and quality control.

Unique In Situ contactless external DLS measurements
Optional contactless measurement capability allows non-invasive particle size analysis directly in reaction vessels or sample containers without physical contact, preserving sample integrity.

Zeta Potential Measurement via Gold-Standard LDE
AMERIGO utilizes Laser Doppler Electrophoresis (LDE) to deliver fast, reproducible zeta potential measurements, even in turbid or challenging dispersions—ensuring reliable insight into formulation stability.

Real-Time Analysis for Kinetic and Custom Experiments
The advanced software platform enables real-time data slicing, kinetic studies, and fully programmable experiments, such as zeta potential versus pH, empowering deeper insight with minimal user effort.