List of Posters ESAS-CSSC 2022

Importance of the Topic

The Monday and Tuesday poster sessions at the analytical chemistry conference showcase a broad spectrum of cutting-edge techniques and applications. By bringing together early-career researchers and seasoned experts, these sessions foster rapid knowledge exchange in areas such as spectroscopy, mass spectrometry, separation science, and sample preparation. The variety of methods on display highlights the ongoing drive toward higher sensitivity, faster analysis, and more sustainable protocols in both fundamental research and applied laboratories.

Objectives and Overview

The main goals of the poster sessions are:

• To present novel analytical approaches across 89 individual contributions.
• To compare instrumentation performance for real-world samples (e.g., algae, glass, biological matrices).
• To develop and validate greener, more efficient sample-preparation and detection workflows.
• To foster interdisciplinary collaboration among chemical, biological, and material scientists.

Methodology and Instrumentation

Techniques represented include:

• Vibrational spectroscopy: IR, NIR, Raman, Surface-enhanced Raman (SERS), 3D mapping.
• Atomic and mass spectrometry: LIBS, ICP-MS (including LA-ICP-MS, ICP-DRC-MS, ICP-MS/MS), ICP-OES, ETAAS, TXRF, XRF.
• Laser-based methods: laser ablation sampling, LIBS for non-metals and trace elements, laser-induced emission.
• Separation hyphenation: HPLC/ICP-MS, HG-ICP-MS.
• Microscopy and imaging: SEM, XRD, X-ray diffraction, positron annihilation spectroscopy.
• Specialized atomizers and traps: dielectric barrier discharge devices for vapor generation, DBD atomizers for in-situ trapping.

Key Findings and Discussion

While individual results vary, common themes emerge:

• Improvement of detection limits for toxic elements (Cd, Pb, Hg, As) in complex matrices.
• Advances in speciation analysis enabling differentiation of metal oxidation states and organic complexes.
• Integration of novel sampling cells (e.g., for transcorneal studies) and green solvents (DES) to reduce environmental impact.
• Demonstrations of matrix-matched calibration and standard addition strategies enhancing quantitative accuracy.

Benefits and Practical Applications

The methods presented support:

• Environmental monitoring of water, soil, and air pollutants.
• Quality control in pharmaceutical, food, and cosmetics industries.
• Biological and biomedical research, including peptide and biomolecule characterization.
• Material science investigations, such as polymer surface modification and nanocomposite analysis.

Future Trends and Opportunities

Emerging directions include:

• Hybrid multi-technique platforms combining spectroscopy and mass spectrometry for richer datasets.
• Miniaturized, portable instruments for on-site analysis in field or clinical settings.
• Automation and AI-driven data interpretation to accelerate method development and reduce human bias.
• Continued focus on green chemistry: solvent reduction, renewable materials, and energy-efficient instrumentation.

Conclusion

The poster sessions reflect the dynamic landscape of analytical chemistry, underlining ongoing efforts to improve sensitivity, selectivity, and sustainability. The diverse array of techniques and applications underscores the field’s interdisciplinarity and its critical role in addressing environmental, industrial, and biomedical challenges.

Reference

No formal references were provided in the source material.