Fully automated sensitive determination of immunosuppressant drugs in whole blood, using high quality internal standardization

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PO-CON1773E Fully automated sensitive determination of immunosuppressant drugs in whole blood, using high quality internal standardization ASMS 2017 ThP-086 Marc FERNANDEZ 1, Aurore JAFFUEL 1, Fanny DAYOT 2, Jean-François HOEFFLER 2, Alban HUTEAU 1 1. SHIMADZU France, le Luzard II, bat A, Bd Allende, Noisiel, 77448 Marne La Vallée cedex 2, France, 2. ALSACHIM, 160 Rue Tobias Stimmer, 67400 Illkirch, France

Introduction Measurement of immunosuppressant drugs (Figure 1.) is essential during organ transplantation. Under-dosing can lead to organ rejection, while over-dosing can cause serious toxicity. Traditional methods to measure immunosuppressant drugs in whole blood are based on either immunoassays or chromatography. Immunoassays, though, are affected by matrix interferences and lack of specificity. LC-MS/MS has then become the gold standard due to its specificity, precision and sensitivity. However, it has still one major drawback: current LC-MS/MS platforms demand personnel with expertise and, for whole blood samples, tedious sample preparation. As a consequence, sample throughput is generally much lower than for immunoassays. We here report a fully automated procedure for the quantitation of four major immunosuppressant in whole blood samples, using of 13C labelled internal standards. 1.a. Tacrolimus 1.b. Sirolimus 1.c. Everolimus 1.d. Cyclosporine-A Figure 1. Structures of tacrolimus (a), sirolimus (b), everolimus (c), and cyclosporine-a (d) Methods and Materials The quantitative analysis of Immunosuppressant (Figure 2.) was performed using reagents provided in Alsachim Dosimmune kit. The Immunosuppressant and Internal standard were monitored using UHPLC-MS/MS system (Nexera X2 and LCMS-8050, Shimadzu, Kyoto). Sample preparation was performed using extraction buffer and internal standard set provided in Alsachim Dosimmune kit. Analytical performance of the method was monitored using whole blood calibrators and whole blood QC. Automatic sample preparation was performed using CLAM-2000 module (Shimadzu, Kyoto). 2

ALSACHIM whole blood samples High Speed Mass Spectrometer CLAM-2000 Nexera X2 LCMS-8050 Ultra Fast Polarity Switching : - 5 msec Ultra Fast MRM : - 555 MRM/sec Figure 2. Sample workflow overview. Sample preparation : CLAM-2000 and Dosimmune kit Whole blood sample tube is placed into the CLAM-2000 system : (1) 25µL of whole blood sample is mixed with 12.5µL of Internal standard and 175µL of extraction buffer solution, (2) followed by a 30s stirring and (3) a 1min filtration. The extracted sample is transferred to the autosampler of the Nexera X2 system and injected immediately. UHPLC conditions : Nexera X2 and Dosimmune kit Analytical column : Ascentis C18 2,1x50 mm, 5 µm Trap column : Ascentis C8 4,6x30 mm, 5 µm Injection volume : 20 µl Mobile Phase A : 90% 3mM Ammonium formate (ph=3.6) 10% MeOH Mobile Phase B : 10% 3mM Ammonium formate (ph=3.6) 90% MeOH Isocratic flow rate : Mobile Phase A: 2 ml/min (trap column), Mobile Phase B: 0.8 ml/min (analytical column) Oven temperature : 65 C MS conditions : LCMS-8050 Nebulizing Gas : 3 L/min (N 2 ) Heating Gas : 10 L/min (Air) Drying Gas : 10 L/min (N 2 ) HESI : 200 C DL : 250 C HB : 200 C Pause time : 1 msec Polarity switching : 5 msec Points per peak : > 30 3

Table 1. Formula, exact mass and MRM transition for each compound. Compound Formula Exact Mass MRM Evérolimus C 53 H 83 NO 14 957,6 975,6 908,5 Evérolimus 13 C 2 d 4 C 51 13 C 2 H 79 D 4 NO 14 963,6 981,5 914,5 Sirolimus C 51 H 79 NO 13 913,5 931,6 864,5 Sirolimus 13 Cd 3 C 50 13 CH 76 D 3 NO 13 917,5 935,4 864,5 Tacrolimus C 44 H 69 NO 12 803,5 821,5 768,6 Tacrolimus 13 Cd 4 C 43 13 CH 67 D 4 NO 12 808,5 826,4 773,6 Ciclosporine C 62 H 111 N 11 O 12 1201,8 1219,9 1202,8 Ciclosporine d 12 C 62 H 99 D 12 N 11 O 12 1213,8 1231,8 1214,9 Results Method conditions The method enables the quantification of tacrolimus, sirolimus, everolimus and cyclosporine-a in whole blood samples. The established quantification strategy for this compounds is to use internal calibration using deuterium labeled standards. However, they generally suffer from poor isotopic enrichment, leading to overestimation of the unlabeled form. We here use 13C labeled internal standards for tacrolimus, sirolimus and everolimus. This guaranties better isotopic enrichment, better precision of the results, long term stability of the standards and perfect co-elution with the analytes, leading to a better correction of matrix effects. Linearity was confirmed in the range 0.5 to 40 ng/ml for tacrolimus, sirolimus, everolimus, and in the range 5 to 1500 ng/ml for cyclosporine-a (Figure 3.). For all analytes, r² of linearity models was above 0.99, with S/N > 25 for LLOQ levels (Figure 4.). Controls showed accuracies comprised in between 85 and 115% for all analytes (Table 2.). 4

Calibration in whole blood Linearity was confirmed, in whole blood, in the range 0.5-40 ng/ml for tacrolimus (Figure 3.a.), sirolimus (Figure 3.b.), everolimus (Figure 3.c.), and 5-1500 ng/ml for cyclosporine-a (Figure 3.d.). 2.5 0.75 2.0 1.5 0.50 1.0 0.5 0.25 0.0 0 10 20 30 Conc. Ratio 3.a. Tacrolimus in whole blood 0.5-40 ng/ml 0.00 0 10 20 30 Conc. Ratio 3.b. Sirolimus in whole blood 0.5-40 ng/ml 0.75 1.5 0.50 1.0 0.25 0.5 0.00 0 10 20 30 Conc. Ratio 3.c. Everolimus in whole blood 0.5-40 ng/ml 0.0 0 250 500 750 1000 1250Conc. Ratio 3.d. Cyclosporine-A in whole blood 5-1500 ng/ml Figure 3. Calibration curves for tacrolimus (a), sirolimus (b), everolimus (c), and cyclosporine-a (d), in whole blood. Limits of quantification in whole blood The limits of quantification (LLOQ), in whole blood, are 0.5 ng/ml for tacrolimus, sirolimus, and everolimus, and 5 ng/ml for cyclosporine-a. The signal to noise ratio is above 25 at LLOQ levels. Q 821.50>768.25 2.65e3 Q 931.50>864.35 1.19e3 Q 975.60>908.55 2.09e3 Q 1219.80>1202.85 1.65e4 2.6e3 2.4e3 1.2e3 1.1e3 2.0e3 1.6e4 2.2e3 1.0e3 1.8e3 1.4e4 2.0e3 9.0e2 1.6e3 1.2e4 1.8e3 8.0e2 1.4e3 1.6e3 7.0e2 1.2e3 1.0e4 1.4e3 1.2e3 6.0e2 5.0e2 1.0e3 8.0e3 1.0e3 4.0e2 8.0e2 6.0e3 8.0e2 6.0e2 4.0e2 2.0e2 3.0e2 2.0e2 1.0e2 6.0e2 4.0e2 2.0e2 4.0e3 2.0e3-1.0e2 0.70 0.75 0.80 0.85 0.90 0.95 1.00 1.05 0.60 0.65 0.70 0.75 0.80 0.85 0.90 0.95 1.00 1.05 1.10 1.15 0.70 0.75 0.80 0.85 0.90 0.95 1.00 1.05 1.10 0.70 0.75 0.80 0.85 0.90 0.95 1.00 1.05 1.10 1.15 4.a. Tacrolimus 0.5ng/mL 4.b. Sirolimus 0.5ng/mL 4.c. Everolimus 0.5 ng/ml 4.d. Cyclosporine-A 5 ng/ml Figure 4. MRM chromatograms, at LLOQ levels, for tacrolimus (a), sirolimus (b), everolimus (c), and cyclosporine-a (d), in whole blood. 5

Performance Evaluation Whole blood controls showed accuracies comprised in between 85% and 115% for all analytes. Table 2. Whole blood control samples accuracies. Tacrolimus Sirolimus 2.9 114 3.2 115 5.4 108 5.7 105 13.3 87 13.3 93 40.5 95 40.6 103 Everolimus Cyclosporine-A 3.2 114 36.1 98 5.8 92 223.4 106 13.4 85 454.6 85 42.1 94 1693 95 Novel Aspect Fully automated sensitive quantification of immunosuppressant drugs in whole blood, using high quality 13C labelled internal standards, increasing data quality, throughput and safety. For Research Use Only. Not for use in diagnostic procedures. Not available in the USA, Canada and China. First Edition: June, 2017 Shimadzu Corporation, 2017