Agilent ICP-MS Journal (August 2013 – Issue 54)

Others | 2013 | Agilent TechnologiesInstrumentation
Software, HPLC, ICP/MS, Speciation analysis
Industries
Environmental, Pharma & Biopharma
Manufacturer
Agilent Technologies

Significance of the topic


ICP-MS remains a cornerstone of elemental analysis across pharmaceuticals, environmental monitoring and nanotechnology. Recent advances in software, regulatory compliance support and novel ICP-MS techniques address both routine and emerging analytical challenges.

Objectives and overview


This issue presents key developments including:
  • Release of Agilent ICP-MS MassHunter B.01.03 with enhanced compliance integration and USP<232> support
  • HPLC-ICP-MS speciation of aluminum fluoride complexes in environmental samples
  • Practical maintenance tip for torch cleaning
  • Summary of three ICP-MS webinars on nanoparticle analysis and an upcoming workshop
  • SP-ICP-MS characterization of gold nanoparticles
  • Support updates for legacy 7500 Series and new 8800 ICP-QQQ handbook announcement

Methodology and instrumentation


  • A 7700 Series and 8800 ICP-QQQ with MassHunter software B.01.03, supporting OpenLAB Data Store, SDA and OpenLAB ECM compliance platforms
  • HPLC-ICP-MS with Dionex IonPac CS5A/CG5A columns and post-column addition of 5% HNO3 to prevent torch clogging
  • Single Particle ICP-MS (SP-ICP-MS) using time-resolved acquisition on a 7700x instrument to size and count 30 nm and 60 nm gold NPs
  • Webinar series covering regulatory nanomaterial definitions, SP-ICP-MS best practices and FFF-ICP-MS coupling
  • Simple torch cleaning protocol using a 90% isopropanol/7% water/3% NaOH soak

Main results and discussion


The MassHunter B.01.03 update integrates preset USP<232>/<233> methods, new data export options and GC/LC autosampler controls. HPLC-ICP-MS resolved AlF2+, AlF3, AlF4– and Al3+ species in soil-water extracts within four minutes per run. SP-ICP-MS discriminated mixed gold NP populations, delivering size distribution, particle count and elemental concentration. Webinars demonstrated the application of separation techniques (FFF) and regulatory frameworks for nanoparticle analysis.

Benefits and practical applications


  • Streamlined USP<232> compliance for pharmaceutical QC
  • Rapid environmental speciation of aluminum species
  • Improved instrument uptime via simple torch maintenance
  • Validated nanoparticle characterization workflows for safety assessments
  • Enhanced data integrity through integrated compliance software

Future trends and potential uses


The drive toward harmonized global regulatory methods, broader adoption of ICP-QQQ, and coupling separation techniques (FFF, HPLC) with ICP-MS will expand capabilities for complex matrices and nanomaterial analysis. Continued on-demand webinars and hands-on workshops will disseminate best practices and advance user proficiency.

Conclusion


This issue demonstrates progressive enhancements in ICP-MS instrumentation, software and methodologies that address evolving analytical requirements across industries. The integration of compliance tools, rapid speciation protocols and advanced nanoparticle characterization techniques underpins the next generation of trace element analysis.

References


1. Frankowski M., Zioła-Frankowska A., Siepak J. Talanta 2010;80:2120–2126.
2. Frankowski M., Zioła-Frankowska A., Siepak J. Microchemical Journal 2010;95:366–372.

Content was automatically generated from an orignal PDF document using AI and may contain inaccuracies.

Downloadable PDF for viewing
 

Similar PDF

Agilent ICP-MS Journal (May 2015 – Issue 61)
Agilent ICP-MS Journal (May 2015 – Issue 61)
2015|Agilent Technologies|Others
Agilent ICP-MS Journal (February 2015 – Issue 60)
Agilent ICP-MS Journal  (July 2016 – Issue 66)
Agilent ICP-MS Journal (July 2016 – Issue 66)
2016|Agilent Technologies|Others
Agilent ICP-MS Journal (May 2013 – Issue 53)
Agilent ICP-MS Journal (May 2013 – Issue 53)
2013|Agilent Technologies|Others