Analytical Report. Volatile Organic Compounds Profile by GC-MS in Cupcake Batter Flavor Concentrate

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Millis Scientific, Inc 6400 Baltimore National Pike #201 Baltimore MD 21228 Telephone: 877-844-2635 Email: info@millisscientific.com Title Analytical Report Report No. 042216-001-6 Issue Date April 22, 2016 Notebook reference 11-98-03 Contributors: Quote No. Requester Volatile Organic Compounds Profile by GC-MS in Cupcake Batter Flavor Concentrate Alexei Gapeev Flavorah Specific Aim: The goal is to determine levels of Acetoin, Diacetyl and Acetylpropionyl with reporting cutoff 5 ppm Background of the matter Diacetyl (2,3-butanedione, CAS 431-03-8) is a volatile liquid with intense buttery flavor occurring naturally in diary and fermented foods. It is extensively used as a flavoring agent to impart a buttery flavor. Acetoin (3-Hydroxy-2-butanone, CAS 513-86-0), Acetylpropionyl (2,3-Pentadione, CAS 600-14-6) are related compounds with somewhat similar custard flavor also used as flavoring agents. These compounds find use in flavoring compositions designed to impart certain flavors to foodstuffs. They are also common products of fermentation and present in beers, wines and dairy products albeit in low (tens of ppb) levels. When inhaled, these compounds are believed to have deleterious effect on lung function and cause a serious lung disease. Thus it is imperative that no flavoring composition designed to be inhaled has any of the target compounds. Samples Sample arrived as viscous liquid with characteristic odor labeled Cupcake Batter. 5 ml of submitted material was placed in 40 ml headspace collection vial

followed by addition of internal standard (IS). The vial was held at 60C for 4 hours before headspace sampling. Volatile compounds were collected out of headspace with the aid of 1 ml gastight syringe. 0.2 ml of collected headspace was injected at spit ratio of 20. Experimental: 1. GC conditions: Injector temperature: Initial oven temperature: Hold I Ramp I Final temperature I Hold II 2. MS parameters Ionization and ion polarity Scan rate 250 C 40 C 2 min 10 C/min 220 C 5 min Mass range Ion source temperature 150 Transfer line temperature 220C EI+ 2 scans/sec 35-300 Da 3. GC-MS analysis. Waters/Micromass Quatro GC mass spectrometer interfaced to a Thermo Electron Trace gas chromatograph was utilized for the analysis. 30M 0.32 mm ID DB-624 column was used to separate components. Carrier gas was helium at 2 ml/min. 4. Data treatment. Methylethylketone (MEK) was used as an internal standard. Table 1 lists qualifier and quantifier ions for the target compounds. RT, min Compound Qualifier, m/z Quantifier, m/z 4.3 Diacetyl 86 43 6.3 Acetylpropionyl 100 43 7.2 Acetoin 88 45 Table 1 Retention times and m/z ratios of the target compounds Results: TIC GC-MS chromatogram of the submitted sample is shown in Appendix I, figure 1. Displayed on figure 2 are selected ion chromatograms for ions used to quantify the target compounds. Arrows designate expected retention times (RT) for diacetyl, acetylpropionyl and acetoin elution (4.3, 6.3 and 7.2 min respectively) out of the GC column 1 A green arrow indicates a compound is not present at reporting cutoff and a red arrow 1 Presence of a peak at designated RT does not necessary signify that a target compound detected. If stated as N/D the qualifier ion is not detected.

indicates that level exceeds the cutoff. * designates internal standard. Table 2 lists target compound levels. Compound Diacetyl 102 Acetylpropionyl Concentration, ppm N/D Acetoin 959 Table 2 Sample Cupcake Batter, target compound levels. Concentration units are ppm or N/D, not detected.

APPENDIX I