Drug disposition classification systems: A comparative review of BDDCS, ECCS and ECCCS

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Novartis Drug disposition classification systems: A comparative review of BDDCS, ECCS and ECCCS Birk Poller, Gian Camenisch - Novartis SOLVO - Meet The Experts Transporter Conference April 26, 2018

Drug disposition classification systems BCS BDDCS Amidon et al, 1995, Pharm Res;12:413-20 Wu and Benet, 2005, Pharm Res;22:11-23 ECCCS ECCS 2 Camenisch et al, 2015, ADMET&DMPK;1:1-14 Camenisch, 2016, Pharm Res;33:2583-93 Varma et al, 2015, Pharm Res;32:3785-802

Biopharmaceutics Drug Disposition Classification System (BDDCS) Classification based on human in vivo metabolism (or passive permeability) and soluble dose Rather applicable in late drug development phases Provides information about involvement of potential transport processes in absorption and elimination Observation based classification system 3

Extended Clearance Classification System (ECCS) Classification based on in vitro permeability and physicochemical properties (MW, charge) Applicable in early drug development phases Allows to identify the rate-limiting clearance processes (absorption, distribution and elimination model) Observation based classification system (based on the extended clearance concept) 4

Extended Clearance Concept Classification System (ECCCS = EC3S) CL h,int = Blood stream Hepatocyte PS inf,act + PS inf,pas PS eff,act + PS eff,pas + CL int CL int PS inf,pas < 3-5 Q h PS inf,pas 3-5 Q h PS inf,pas < CL int PS inf,pas CL int EC3S class 1 EC3S class 2 PS inf,pas PS inf CL int PS inf CL int PS inf,pas EC3S class 3 EC3S class 4 in vitro input parameters PS inf,pas PS inf,act CL int,met CL int,sec PS eff,act Hepatic uptake / MDCK permeability Hepatic uptake Liver microsomes / Hepatocytes / S9 Sandwich-cultured hepatocytes = PS inf,pas Camenisch, 2016, Pharm Res;33:2583-93; Shitara et al, 2005, Annu Rev Pharmacol Toxicol;45:689-723 Sirianni and Pang, 1997, J Pharmacokinet Biopharm;25:449-70 5

Extended Clearance Concept Classification System (ECCCS = EC3S) Classification based on in vitro permeability and in vitro metabolic and biliary clearance data Allows to identify the rate-limiting clearance processes (absorption, distribution and elimination model) Rate-limiting step of hepatic elimination Model-based drug absorption, distribution and elimination drug classification system 6

EC3S Elimination mechanisms CYP, non-cyp Class 2cd Class 1,2ab Predominantly CYP Class 3,4ab Class 3,4cd Metabolic, renal, biliary possible 7

EC3S Elimination mechanisms Metabolic CYP non-cyp Renal and biliary, metabolic possible Assessment based on ~80 Novartis compounds Using MDCK permeability and human liver microsomal stability data for compound classification Metabolic elimination generally well predicted (MDCK-LE P app > 5 10-6 cm/s) EC3S provides information for CYP (Class 1,2ab) vs non-cyp (class 3,4ab) Prediction of major elimination mechanisms in early development phase 8

EC3S Hepatic clearance IVIVE Rate-determining process transporter effects likely transporter effects unlikely PS inf,pas < 3-5 Q h PS inf,pas 3-5 Q h PS inf,pas < CL int PS inf,pas CL int EC3S class 1 EC3S class 2 PS inf,pas PS inf CL int PS inf CL int PS inf,pas EC3S class 3 EC3S class 4 liver uptake-limited EC3S class 1 HLM: overpredictive HH: predictive SHH: predictive ECM: predictive capacity-limited EC3S class 2 HLM: predictive HH: predictive SHH: over predictive ECM: predictive HLM: overpredictive HLM:underpredictive HH: underpredictive HH: underpredictive SHH: predictive SHH: overpredictive ECM: predictive ECM: predictive EC3S class 3 EC3S class 4 Hypothesis: knowing the rate-limiting process of hepatic elimination will facilitate selection of the most predictive clearance prediction tool 9

EC3S Hepatic clearance IVIVE Mechanism: sinusoidal influx/efflux metabolism biliary secretion Extended Clearance Model (ECM) plasma protein binding In vitro assay: suspended hepatocytes (SHH) liver microsomes (HLM), hepatocytes (HH) sandwich-cultured hepatocytes (SCH) HLM, SHH, SCH ultrafiltration, ultracentrifugation or or equilibrium-dialysis CL, int, all CL met u HH, HLM CLint, all PS inf SHH CL h Q h E h Q Q h h f u, b f u, b CL CL int, all int, all CL ECM CL int, all int, all ECM (-) PS PS PS PS inf inf, pas inf inf, pas ( CL ( CL CL met, u CL sec, u sec, u met, u CL met, u CL ) met, u ) Expectation: different outcomes depending on rate-limiting clearance mechanism (EC3S class-dependent) 10 Umehara and Camenisch, 2012, Pharm Res;29:603-17. Camenisch and Umehara, 2012, Biopharm Drug Dispos;33:179-94.

EC3S Hepatic clearance IVIVE HLM: 100 10 1 0.1 0.01 0.01 0.1 1 10 100 CLh,obs [ml/min/kg] CL int, all CL met Class 2 generally well predicted Often under-predictive for class 4 Tendency for being over-predictive for class 1 and class 3 SHH 100 10 1 0.1 0.01 0.01 0.1 1 10 100 CLh,obs [ml/min/kg] CLint, all PS inf Class 1 and class 3 generally well predicted Over-predictive for some class 2 and class 4 cpds ECM (-): 100 10 1 0.1 0.01 0.01 0.1 1 10 100 11 CLh,obs [ml/min/kg] CL int, all PS PS inf inf, pas CL CL met met Class 1, class 3 and class 2 generally well predicted Under-predictive for some class 4 cpds

EC3S Hepatic clearance IVIVE 100 ECM: 10 1 0.1 0.01 0.01 0.1 1 10 100 CLh,obs [ml/min/kg] CL int, all PS PS inf eff ( CL ( CL sec sec CL CL met met Predictive for all EC3S classes ) ) IVIVE recommendations: HH is the method of choice for IVIVE of EC3S class 1 cpds HLM or HH is the method of choice for IVIVE of EC3S class 2 cpds SHH is recommended for EC3S class 3 cpds (HH is the best alternative) ECM is needed for EC3S class 4 cpds (no real alternative available) 12 Camenisch et al, 2015, ADMET&DMPK; 3:1-14

EC3S Total Clearance IVIVE Estimation of fractional hepatic elimination Total drug clearance (CL tot ) = hepatic drug clearance (CL h ) + renal drug clearance (CL ren )? Extended Clearance Model no appropriate renal in vitro model available Is it possible to estimate relative contributions of hepatic (fn h ) and nonhepatic elimination pathways? 13 CL tot = CL h fn h

EC3S Total Clearance IVIVE Estimation of fractional hepatic elimination Observation: hepatic uptake permeability correlates with elimination pathway ECCCS class 3/4 ECCCS class 1/2 Camenisch et al, 2015, ADMET&DMPK; 3:1-14 Riede et al, 2016, Eur J Pharm Sci;86:96-102. 14

EC3S Total Clearance IVIVE Estimation of fractional hepatic elimination ECCCS class 1/2: hepatic drug elimination CL tot = CL h fn h ECCCS class 3/4: hepatic and renal drug elimination Accurate prediction of total drug clearance independent of elimination pathways 15 Riede et al, 2016, Eur J Pharm Sci;86:96-102.

CLh,pred,ECM [ml/min/kg] CLtot,pred,ECM [ml/min/kg] EC3S Total Clearance IVIVE Estimation of fractional hepatic elimination CL h,pred vs CL tot,obs CL tot,pred vs CL tot,obs 100 100 10 10 1 1 0.1 0.1 0.01 0.01 0.1 1 10 100 CLtot,obs [ml/min/kg] 0.01 0.01 0.1 1 10 100 CLtot,obs [ml/min/kg] Prediction of total human clearance 1) f n,h estimated from PS inf,pas 2) CL tot calculated with : CL CL tot,pred (assuming absence of other elimination routes) h,pred / f n,h,pred 16 Riede et al, 2016, Eur J Pharm Sci;86:96-102.

Applications for drug classification Guidance for the drug development process What is the recommendation with regards to metabolism investigations (in vivo or in vitro)? What is the most appropriate clearance prediction tool for IVIVE? Are there opportunities to waive any animal studies (e.g. bile-duct cannulation studies)? What is the potential leverage with regards to in silico PK work? Is it recommended to synthesize a radiolabel in an early development phase? Which DDI follow-up studies (cpd as perpetrator vs victim) are recommended? 17

Applications for drug classification BDDCS ECCS EC3S IVIVE Varma et al, Pharm Res (2015) Umehara and Camenisch, Pharm Res (2012) Camenisch and Umehara, Biopharm Drug Dispo (2012) Riede et al, Eur J Pharm Sci (2016) Elimination Mechanism Hosey et al, The AAPS Journal (2016) Varma et al, Pharm Res (2015) El Kattan et al, Pharm Res (2016) Riede et al, Eur J Pharm Sci (2016) DDI Shugarts and Benet, Phar Res (2009) El Kattan et al, Pharm Res (2016) Kunze et al, Drug Metab Pers Ther (2015) Kp uu Riede et al, Drug Metab Dispos (2017) Food effect Custodio et al, Adv Drug Deliv Rev (2008) Himbach et al, The AAPS Journal (2012) 18

Summary All compound classification systems provide information on drug disposition and the interplay between metabolic enzymes and transporters. ECCs and EC3S use in vitro data only. BDDCS requires information of a clinical dose and may therefore be positioned at a later stage in the drug development process. EC3S provides directly enables quantitative estimates of hepatic clearance and disposition processes given the required in vitro parameters are generated. All three classification systems may facilitate the compound classdependent drug development process by guiding the selection of the most appropriate in vitro and in vivo studies 19

Acknowledgments Gian Camenisch Thank you for your attention Dallas Bednarczyk Sujal Deshmukh Bernard Faller Imad Hanna Anett Kunze Julia Riede Patrick Schweigler Kenichi Umehara 20