Rapid Sample Assessment and Simplified Method Development with IntelliQuant

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Rapid Sample Assessment and Simplified Method Development with IntelliQuant Technical Overview Introduction In addition to routine quantitative elemental analyses using ICP-OES, analytical laboratories often want to quickly identify other elements in their samples. For example: Food testing labs analyzing a routine set of elements want to be aware of the presence of additional elements that may be of concern from a quality control perspective Mineral testing labs want to be sure no unexpected precious metal group (PMG) or other valuable metals go unnoticed Analysts developing ICP-OES methods need a way to find out all the elements present in their sample to simplify method development Agilent s IntelliQuant is a software feature that identifies and calculates an approximate concentration (semi-quantifies) for up to 70 elements in a sample, expanding the capabilities of a classic ICP-OES analysis.

Using IntelliQuant, analysts can quickly check the approximate concentration of many elements in their sample, without changing their routine methods or preparing additional multi-element standards, which can be technically challenging and time consuming. IntelliQuant is available on all Agilent 5110 ICP-OES and 5100 ICP-OES systems and is fully integrated into ICP Expert software (version 7.3 and later). How does IntelliQuant work? Identify up to 70 additional elements in one fast full wavelength scan In addition to the standard detector read for quantifying selected elements in a sample, IntelliQuant can take a full wavelength scan from 167 to 785 nm. The end result is both the quantitation of the elements defined in the method as well as identification and semi-quantitation of up to 70 additional elements all with just two readings of Agilent s VistaChip II CCD detector and as little as 15 additional seconds of measurement time per sample. This feature allows you to create a calibration from standards that are matrix-matched to your samples, giving better accuracy. Any updated or new IntelliQuant calibration is measured in the standard quantitative analytical sequence, meaning no separate analyses or additional worksheets are required. What does IntelliQuant allow you to do? Perform rapid screening IntelliQuant is an ideal rapid sample screening tool. It identifies and semi-quantifies up to 70 unknown elements and takes as little as 15 additional seconds per sample. The IntelliQuant interface features a periodic table heat map that shows which elements have been found in a sample (Figure 1). Elements present at low concentrations are coloured yellow, medium concentration are orange and high concentration are red. Default or custom calibration IntelliQuant includes default calibrations, available for axial, radial and Synchronous Vertical Dual View modes. These factory calibrations allow the estimation of up to 70 elements in a sample without the need to analyze any additional standards. If you want more accurate results without additional sample preparation, it s possible to update the default IntelliQuant calibrations by using a set of multi-element standards in Agilent s IntelliQuant Calibration Kit. This kit includes multi-element standards which are measured to update the default IntelliQuant calibration for all 70 elements, which is ideal for labs requiring more accurate semi-quantitative analysis without time consuming standard preparation. For full flexibility a custom IntelliQuant calibration can be measured and stored. This calibration can be fully customized to contain any set of elements over the desired calibration range. Figure 1. IntelliQuant generates a heatmap to visually present the relative concentrations of elements present in a sample The heat map is easily customizable. For example, a food testing laboratory may set the high concentration limit as the maximum regulated concentration for a specific element, so non-compliant samples will be displayed with red on the periodic table. A full wavelength spectrum (Figure 2) is also displayed after the scan, providing more information about the elements present and any potential intereferences. The peak detection threshold (the minimum peak height for an elemental wavelength to be included in the determination), can be set for all or some elements. 2

Figure 2. The IntelliQuant interface displays the full wavelength scan of the sample (top) and a detailed spectrum view of any selected wavelength range from the full scan, which includes labeled element peaks (bottom). Simplify method development When developing an ICP-OES method it s useful to know if any unknown elements are present, as they may cause spectral interferences with the elements of interest. The full scan obtained by IntelliQuant can guide wavelength selection, avoiding such interferences, thus simplifying the method development process. IntelliQuant is also useful when the elements in a sample are completely unknown. The full wavelength scan generated can be used to determine which elements are present, allowing the analyst to then decide which should be quantitatively analyzed in a full ICP-OES analysis. Address unexpected results As the instrument reads all wavelengths for all elements during an IntelliQuant analysis, any wavelength used for semi-quantitative analysis can be changed after the analytical run is complete. This allows you to retrospectively analyze data at any time after the initial analysis. For example, if a spectral interference is observed in an IntelliQuant spectrum an alternative wavelength can be selected and the concentration of the element is quickly and automatically reprocessed. IntelliQuant data can also be used to identify appropriate calibration ranges for each element. 3

Example analysis Five pre-digested Certified Reference Materials (CRMs), representing a range of sample types were analyzed using IntelliQuant on an Agilent 5110 SVDV ICP-OES. Results were obtained using an updated IntelliQuant calibration, with the IntelliQuant Calibration Kit multielement standards being measured on the instrument during a standard analytical run. All measurements were taken in the Synchronous Vertical Dual View (SVDV) mode of the instrument. Semi-quantitative recoveries for all elements in the food CRMs are shown in Table 1. Results for environmental CRMS are shown in Table 2. IntelliQuant s retrospective wavelength selection capabilities were utilized to avoid spectral interferences and achieve optimum semiquantitative accuracy. By changing the wavelengths used to estimate the concentrate of those elements that were being impacted by interference, it was possible to achieve recoveries for almost all measured elements in the five CRMs within ± 20% of the certified value. The accuracy of these results demonstrate IntelliQuant s potential as an extremely useful rapid screening tool. References CCD and CID solid-state detectors, Agilent publication 5991-4854EN, (2014). Table 1. IntelliQuant semi-quantitative recoveries for elements in two food CRMs. Element & wavelength (nm) CRM Orchard Leaves (CRM-OL) IntelliQuant Powdered Milk Solution (CRM-MP) CRM IntelliQuant Aluminum 237.312 3 3 0.02 Arsenic 188.98 0.1 0.07 0.002 Barium 614.171 0.5 0.5 Cadmium 214.439 0.001 Calcium 318.127 200 204 130 136 Chromium 205.56 0.03 0.03 0.0003 Cobalt 230.786 0.002 0.0004 Copper 213.598 0.1 0.09 0.007 Iron 273.358 3 3 0.02 Lead 217.000 0.5 0.5 0.002 Magnesium 277.983 60 57 12 12 Manganese 293.931 1 1 0.003 Nickel 231.604 0.01 Phosphorus 177.434 20 20 100 99 Potassium 766.491 150 140 170 153 Selenium 196.026 0.0008 0.001 Silicon 243.515 5 7 Sodium 589.592 1 1 50 44 Vanadium 311.837 0.005 Zinc 334.502 25 30 0.5 0.6 4

Table 2. IntelliQuant semi-quantitative recoveries for elements in three environmental CRMs. Element & wavelength (nm) Estuarian Sediment Solution (CRM-ES) CRM IntelliQuant CRM Soil Solution B (CRM-SOIL-B) IntelliQuant CRM Soil Solution A (CRM-SOIL-A) IntelliQuant Aluminum 237.312 700 705 700 720 500 534 Antimony 206.834 0.004 0.4 0.3 0.03 Arsenic 188.98 0.1 6 5 0.2 0.1 Barium 614.171 7 6.48 5 5 Beryllium 313.107 0.02 0.04 Cadmium 214.439 0.0004 0.2 0.2 0.003 Calcium 318.127 80 75 125 118 350 331 Chromium 205.56 0.8 0.8 0.4 0.4 Cobalt 230.786 0.1 0.1 0.1 0.1 Copper 213.598 0.2 0.2 3 3 0.3 0.3 Iron 273.358 350 288 350 309 200 189 Lead 217.000 0.3 60 58 0.4 0.3 Magnesium 277.983 100 89 80 74 70 62 Manganese 293.931 4 4 100 89 0.1 0.2 Nickel 231.604 0.3 0.3 0.2 0.2 0.3 0.3 Phosphorus 177.434 5 5 10 10 10 9 Potassium 766.491 150 150 210 189 200 192 Selenium 196.026 0.05 0.01 Silicon 243.515 3000 2430 3000 2460 3000 2390 Sodium 589.592 200 146 100 86 70 65 Thorium 283.73 0.1 0.1 0.1 Uranium 385.957 0.25 0.01 Vanadium 311.837 1 0.9 0.8 0.7 0.1 0.09 Zinc 334.502 1.5 1.6 70 74 1 1 5

www.agilent.com/chem Agilent shall not be liable for errors contained herein or for incidental or consequential damages in connection with the furnishing, performance or use of this material. Information, descriptions, and specifications in this publication are subject to change without notice. Agilent Technologies, Inc. 2017 Published October 1, 2017 Publication number: 5991-6876EN