Quantification of Budesonide Using UPLC and Xevo TQ-S

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Tirupateswara Rao B., Sudarshan Mantha, and Gopal Vaidyanathan Waters India MS Application Laboratory, Bangalore, India A P P L I C AT ION B E N E F I T S This work demonstrates the benefits of the Regulated Bioanalysis System Solution from Waters, which combines solid phase extraction methodology, UPLC chromatography, and an advanced tandem quadrupole MS. The system is used for the development of a highly sensitive method for quantification of budesonide in plasma that also offers high selectivity and throughput. INT RO DU C T ION Budesonide is a glucocorticoid steroid used for the treatment of asthma and noninfectious rhinitis (including hay fever and other allergies), and also for treatment and prevention of nasal polyposis. In addition, it is used for Crohn s disease (inflammatory bowel disease). Budesonide, in comparison with prednisolone, has been associated with fewer bone density losses and, unlike other corticosteroids, has little influence on hypothalamic-pituitary-adrenal axis, which also limits the need of tapering before discontinuation. Overall, Budesonide has a lower incidence of systemic manifestations than similar medications. Figure 1. Molecular structure of Budesonide. WAT E R S SO LU T IONS Sep-Pak extraction products Estimating Budesonide at low levels in complex matrices, such as human plasma, is a challenge due to the extremely low circulatory levels in plasma (1% bioavailability) and high affinity to bind proteins. In this application note, we successfully report an LC/MS/MS analysis of Budesonide with an LLOQ of 2 pg/ml. ACQUITY UPLC ACQUITY UPLC BEH C 18 15 mm column Xevo TQ-S mass spectrometer K E Y W O R D S Budesonide, high sensitivity, high specificity, high throughput 1

E X P E R IM E N TA L The samples were isolated using solid phase extraction with a Waters Sep-Pak C 18 (1 cc, 5 mg) Cartridge. A 5 µl aliquot of plasma was precipitated with zinc sulfate, then diluted with ammonia and loaded onto the SPE cartridge previously conditioned with organic solvent and water. The plasma solution was then washed with water followed by an organo-aqueous solution and elution in solvent. The eluted samples were evaporated to dryness and reconstituted in 5% acetonitrile. Zinc sulfate and acetonitrile were purchased from Fluka (MO, USA). R E SU LT S The chromatographic method utilized an ACQUITY UPLC System with an ACQUITY UPLC BEH C 18 15 mm, 1.7 µm, 2.1 x 15 mm Column; this provided excellent resolution for the Budesonide analyte from the endogenous components in the samples. Budesonide eluted at 2.71 min with a peak width of 12 s at the base. The data illustrates both the blank signal and the signal obtained from the lower limit of quantification (LLOQ) of Budesonide in human plasma, shown in Figure 2. BUDESONIDE_MD_24911_2_2 Smooth(Mn,3x3) SPE_SEP_PAK_C18 EXT_BLANK_IS 1 %.49.82.95 1.67 1.76 2.5 2.11 2.24 MRM of 2 channels,es+ 431.36 > 323.23 1.97e+4.2.4.6.8 1. 1.2 1.4 1.6 1.8 2. 2.2 2.4 2.6 2.8 3. 3.2 3.4 3.6 3.8 4. 4.2 4.4 2.49 2.59 2.79 2.92 3.1 3.8 3.22 3.56 3.72 4.11 4.25 min BUDESONIDE_MD_24911_2_3 Smooth(Mn,3x3) SPE_SEP_PAK_C18 EXT_STD_1 1 BUDESONIDE 2.71 296.56 6964 MRM of 2 channels,es+ 431.36 > 323.23 1.15e+4 2.4 2.24 2.49 2.58 2.43 % 1.75 2.12 2.79 2.9.49.95 3.8.81 1.66 3.22 3.72 3.98 4.24.2.4.6.8 1. 1.2 1.4 1.6 1.8 2. 2.2 2.4 2.6 2.8 3. 3.2 3.4 3.6 3.8 4. 4.2 4.4 min Figure 2. Chromatogram of blank sample (top) and LLOQ concentration (2 pg/ml) of Budesonide (bottom) obtained using an ACQUITY UPLC System coupled with a Xevo TQ-S MS. As seen in Figure 2, the retention time of Budesonide does not interfere with the background; the signal corresponding to the analyte of interest can be easily observed even at the LLOQ level. The Xevo TQ-S MS is equipped with a novel StepWave ion guide, which when combined with the high-resolution chromatography obtained from the ACQUITY UPLC System, results in successful completion of extremely sensitive applications to be performed with high reproducibility. As observed from Figure 2, the benefits of Xevo TQ-S along with outstanding sensitivity observed from UPLC allows detection of Budesonide at a concentration of 2 pg/ml, with a signal-to-noise ratio of 35:1. 2

The assay in this report showed linear calibration over the range of 2 to 256 pg/ml with an excellent r 2 value of.992, shown in Table 1 and Figure 3. The back-calculated concentration of the standard was found to be within ±12% of the nominal concentration (Table 1), and an excellent degree of accuracy was achieved for each sample. This assay was performed with a 7 min injection-to-injection time scale highlighting the capability of Waters Bioanalysis System solution to deliver highly sensitive and specific results while maintaining desired precision and high throughput value. Sample Type Nominal Area Area Ratio IS Area Accuracy BLANK Blank 25.1433 26 12.56 Standard 1 Standard 2 315.5235 613 97.9 Standard 2 Standard 4 418.9869 4233 88.54 Standard 3 Standard 8 857.17741 4833 19.5 Standard 4 Standard 16 186.43676 4259 17.41 Standard 5 Standard 32 361.8556 4219 89.69 Standard 6 Standard 64 6597 1.42784 462 99.49 Standard 7 Standard 128 1365 3.1663 4126 14.91 Standard 8 Standard 256 27649 6.6769 4142 12.56 Table 1. Calibration data of Budesonide over the range of 2 to 256 pg/ml. 3 25 Analyte Area IS Area 2 15 1 5 Blank Standard 1 Standard 2 Standard 3 Standard 4 Standard 5 Standard 6 Standard 7 Standard 8 Figure 3. Comparison of area under curve for Budesonide (analyte) and IS for the concentration range of 2 to 256 pg/ml. 3

Recovery of the analyte and internal standard (IS) was performed by comparison of extracted QC samples against six post-extracted samples and was found to be approximately 75% at LQC, MQC, and HQC levels for both analyte and IS (Figure 4 and Table 2). The %CV for repeat batches were found to be within 1% of LLOQQC and varied between 1% to 3% for all QC levels. 18 16 14 12 1 8 Sample 1 Sample 2 Sample 3 Sample 4 Sample 5 Sample 6 6 4 2 LQC-EXT LQC-PS EXT MQC-EXT MQC-PS EXT HQC-EXT HQC-PS EXT Figure 4. Analyte recovery (area under the curve) from six samples of Budesonide at LQC, MQC, and HQC concentrations. LQC MQC HQC 77.1 72.1 76 Mean Analyte Recovery (%) = 75 Table 2. Mean analyte recovery (%) of Budesonide at LQC, MQC, and HQC levels. As can be observed from the data shown in Figure 4, the analyte recovery values for the six samples for all three concentration levels (LQC, MQC, and HQC) did not vary significantly. In addition, as detailed in Table 2, the mean analyte recovery for the three concentration ranges was well within acceptable limits. 4

For a comparison of samples within the global batches, three separate batches were prepared with six samples in each batch for LLOQQC, LQC, MQC, and HQC concentration levels. The data showed excellent agreement between the six samples in all the three batches (Table 3). The mean accuracy obtained for all the sample levels was found to be > 94% for every concentration (Table 3). This outstanding quality of data was achieved using the Regulated Bioanalysis System solution. P-A-Batch-1 P-A-Batch-2 P-A-Batch-3 GLOBAL DATA LLOQQC_1 2 2.28 LQC_1 8 7.46 MQC_1 64 57.933 HQC_1 128 129.695 LLOQQC_2 2 2.23 LQC_2 8 7.329 MQC_2 64 58.336 HQC_2 128 125.22 LLOQQC_3 2 2.323 LQC_3 8 7.27 MQC_3 64 59.956 HQC_3 128 13.657 LLOQQC_4 2 1.968 LQC_4 8 7.571 MQC_4 64 59.211 HQC_4 128 131.516 LLOQQC_5 2 2.193 LQC_5 8 7.543 MQC_5 64 56.85 HQC_5 128 128.242 LLOQQC_6 2 1.958 LQC_6 8 7.245 MQC_6 64 56.642 HQC_6 128 128.428 LLOQQC_1 2 1.966 LQC_1 8 7.891 MQC_1 64 65.914 HQC_1 128 119.348 LLOQQC_2 2 1.596 LQC_2 8 8.172 MQC_2 64 64.218 HQC_2 128 122.465 LLOQQC_3 2 2.163 LQC_3 8 7.597 MQC_3 64 64.24 HQC_3 128 119.825 LLOQQC_4 2 1.932 LQC_4 8 8.26 MQC_4 64 66.349 HQC_4 128 122.48 LLOQQC_5 2 1.83 LQC_5 8 7.774 MQC_5 64 64.9 HQC_5 128 123.182 LLOQQC_6 2 1.845 LQC_6 8 7.951 MQC_6 64 64.28 HQC_6 128 12.825 LLOQQC_1 2 1.978 LQC_1 8 7.33 MQC_1 64 56.47 HQC_1 128 124.581 LLOQQC_2 2 1.912 LQC_2 8 7.776 MQC_2 64 58.221 HQC_2 128 123.72 LLOQQC_3 2 1.727 LQC_3 8 6.78 MQC_3 64 56.233 HQC_3 128 124.916 LLOQQC_4 2 1.958 LQC_4 8 7.243 MQC_4 64 56.18 HQC_4 128 124.972 LLOQQC_5 2 1.514 LQC_5 8 7.199 MQC_5 64 57.332 HQC_5 128 121.7 LLOQQC_6 2 2.7 LQC_6 8 7.255 MQC_6 64 57.967 HQC_6 128 122.278 Mean 1.884 7.92 64.813 121.354 SD 1.886.2 1.349 1.58 %CV 1.1 2.53 1.6 1.3 Accuracy 94.21 98.77 11.27 94.81 Table 3. Comparison of the three separate batches, each containing six Budesonide samples at the LLOQQC, LQC, MQC, and HQC concentration levels. 5

C O N C LUSION Budesonide is a glucocorticoid steroid used for the treatment of asthma and rhinitis. However, due to the extremely low circulatory levels in plasma (1% bioavailability) and high affinity to bind proteins, estimation of Budesonide at low levels in complex matrices like human plasma is a challenging task. In this application note and with the successful use of Waters Regulated Bioanalysis System solution, we report an LC/MS/MS analysis of Budesonide with an LLOQ of 2 pg/ml. In addition to achieving the sensitivity demands, there are several other challenges that affect today s biopharmaceutical companies. These challenges include the instrutment s high throughput capability, robustness, ability to address upcoming analytical demands, and ability to address regulatory guidelines. The results detailed in this application note successfully address each of these challenges. Waters, UPLC, Sep-Pak, ACQUITY UPLC, and Xevo are registered trademarks of Waters Corporation. The Science of What s Possible and StepWave are trademarks of Waters Corporation. All other trademarks are the property of their respective owners. 212 Waters Corporation. Produced in the U.S.A. January 212 724198en AG-PDF Waters Corporation 34 Maple Street Milford, MA 1757 U.S.A. T: 1 58 478 2 F: 1 58 872 199 www.waters.com