Institute of Catalysis and Petrochemistry (ICP-CSIC) · Madrid · Spain

Multiscale
Characterization
in Catalysis

Scientific Vision

Connecting Atomic Structure with Pore Function.

We seek to understand how atomic-scale structure governs adsorption, catalysis and molecular transport, enabling the rational design of next-generation porous materials.

Our research combines materials chemistry, advanced synchrotron characterization and operando experiments to reveal structure–property relationships across multiple length scales.

Ana E. Platero-Prats

Ana E. Platero-Prats

Principal Investigator

Platero-Prats Lab

Institute of Catalysis and Petrochemistry (ICP-CSIC)

MOF framework under a synchrotron X-ray beam with diffraction rings, PDF signal, sample capillary and detector

Our Science

  • Atomic Structure
  • Structure Dynamics
  • Catalytic Function
  • Rational Design
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Scientific Vision

Connecting atomic structure with pore function to understand and design advanced porous materials.

See

Resolve local order and disorder beyond the reach of classical crystallography.

Understand

Link atomic motifs and pore environments to catalytic and separation performance.

Design

Guide the synthesis of the next generation of functional porous materials.

Dr Ana E. Platero-Prats, Principal Investigator

Group Leader

Dr Ana E.
Platero-Prats

Chemist and materials scientist working at the interface of porous materials, advanced structural characterization and catalysis.

“The behaviour of a porous material is written in its atomic structure — our challenge is to learn how to read it.”

Affiliation
ICP-CSIC · Madrid
Expertise
Porous Materials · Multiscale Characterization
Approach
Total Scattering · PDF · XAS · Operando
Research
Structure–Function Relationships

Research at a Glance

Four intertwined lines of enquiry.

From molecular design to operando measurement, our programme spans the full life-cycle of a functional porous material.

01

Porous Materials Chemistry

Metal–organic frameworks, covalent organic frameworks and hybrid porous materials designed with targeted functionality.

02

Multiscale Structural Characterization

Total scattering, Pair Distribution Function analysis, X-ray absorption spectroscopy and complementary spectroscopic methods.

03

Operando and In Situ Science

Following structural evolution, active sites and guest–framework interactions under realistic working conditions.

04

Catalysis and Environmental Applications

Heterogeneous catalysis, gas separations, water remediation, PFAS capture and sustainable chemical technologies.

Zr-MOF framework under a synchrotron X-ray beam, with diffraction rings, Pair Distribution Function signal, sample capillary and detector

From Atomic Motifs to Pore Function

Reading a material at every length scale.

Pair Distribution Function analysis is at the heart of our methodology. By combining total scattering with X-ray absorption spectroscopy and complementary techniques, we resolve the local structure — including the disordered regions that classical crystallography cannot see.

How we do it

Join Us

Motivated researchers welcome.

We support applications to competitive national and international fellowships and welcome candidates in porous materials, advanced characterization, catalysis and operando science.

Opportunities
Synchrotron beamline instrumentation