Metal trace analysis and detection

In metal analysis,  elemental evidence is now gathered from the tiniest traces in the ppm, ppb and ppt ranges with sophisticated instrumentation like AAS, ICP-OES or, more recently, ICP-MS. 

Rather than just looking – modern day laboratory sleuths can only rarely analyse a sample directly without suitable pre-treatment. The sample must be first skillfully dissolved, digested or fused. All the auxiliary reagents used must perform these tasks, but be effectively invisible in the final analysis.
VWR Chemicals and J.T.Baker® standards and reagents are specifically produced to give you that blank background so that you can solve even the most baffling cases. 

  • Chemicals for sample preparation for trace analysis
  • Standards for calibration 
  • Equipment for trace analysis 
  • Related documents for metal trace detection 

Chemicals for sample preparation

Høyrene og ultrarene syrer

Et komplett tilbud av høyrene syrer med maks. tillatt kontamineringsnivå i ppb og ppt; grunnleggende for bruk i ultra-trace analyser.

ARISTAR® acids for trace analysis

This high purity acid range is essential in sample preparation for metal trace analysis with max. permitted levels contaminants in ppm and ppb

Fluxes for XRF

Used for rocks, metals, ceramics and cement analysis. Digestion by fluxing is a common sample preparation step for XRF.

Mercury determination

Mercury is one of the most toxic and poisonous heavy metal in the environment. Its determination usually made by AAS is common in different sectors as Food, Environment and Pharma industries.

Syrer for analyse

VWR Chemicals & Mercks tilbud av reagenser omfatter syrer, kaustiske baser og salter, tilpasset en rekke uorganiske og analytiske formål. Spesifikasjonen angir garantert maks. tillatte grenseverdier for forurensning og har 99 % lagertilgjengelighet.

Etsende alkali og baser for analyse

Alkalier fra VWR Chemicals & Merck for uorganiske og analytiske formål.

Alkalier fra VWR Chemicals for uorganiske og analytiske formål.

Salter for analyse

Analysesalt produseres under strengt kontrollerte forhold, hovedsakelig i Europa.

Supelco® Suprapur salter

Høyrene, uorganiske salter for prøvepreparering, produsert under kontrollerte forhold i rentrom.

Standards for calibration

AAS standards 1000 mg/l

Complete range of 66 AAS Standards at 1000 mg/l available in 100 and 500 ml packs, traceable to NIST and delivered with Certiticate of analysis(CoA)

ICP and ICP-MS standards

Complete range of Standards at 10, 1000 and 10 000 mg/l available in 100 and 500ml packs, traceable to NIST and delivered with Certificate of analysis

ICP and ICP-MS multi-element solutions

Complete range of multi-element solutions for using as internal Standard or for a perfect equipment calibration, traceable to NIST and delivered with CoA.

Customised standard multi-element solutions

VWR, working in partnership with CPAchem, offers a custom service enabling you to define your own components, tailoring the standard to your particular application. 

Ion chromatography standards

Large range composed by 54 elements at 1000 mg/l to be used in Food and Beverage, Environment, Pharmaceutics, Life Science and many more.

Supelco® ICP, AAS og IC standarder

ISO/IEC 17025 krever bruk av godkjent referansemateriale (CMR) i sertifiserte laboratorier.

Equipment for trace analysis

Water purification

VWR® water purification systems ensure a pure water supply...


Blenders, homogenisers and grinders for sample preparation...


Magnetic, hotplate and overhead stirrers plus stirring bars and accessories...


Micro, analytical, top pan and moisture determination balances...

Bottle-top dispensers

Precise dispensing from reagent bottles to bottle-top burettes for titration...

What is Atomic Spectroscopy?

Atomic spectroscopy lets analysts determine the composition of liquid or solid samples by measuring the amount of light absorbed by atoms and ions in the material at specific wavelengths. By applying electromagnetic radiation to a compound, it puts atoms in the sample into an excited state. As they return to their original condition, they emit energy as light. By measuring the wavelength and intensity of the emitted light, analysts can identify the atoms in the sample.