AIPH-TB: An Artificial Intelligence Algorithm for Physicochemical Microenvironment ReprogrammingAmplifies Pyrazinamide–Hydroxychloroquine Synergism — A Breakthrough Computational Discovery Toward TB Eradication | Research Square window.SnipcartSettings = { analytics: { enabled: false } }; (function() { var accessVector = localStorage.getItem('access_vector') || ''; window.dataLayer = window.dataLayer || []; if (accessVector) { window.dataLayer.push({ user: { profile: { profileInfo: { snid: accessVector } } } }); } })(); (function(w,d,s,l,i){w[l]=w[l]||[];w[l].push({'gtm.start':new Date().getTime(),event:'gtm.js'});var f=d.getElementsByTagName(s)[0],j=d.createElement(s),dl=l!='dataLayer'?'&l='+l:'';j.async=true;j.src='https://www.googletagmanager.com/gtm.js?id='+i+dl;f.parentNode.insertBefore(j,f);})(window,document,'script','dataLayer','GTM-K279D39R'); Browse Preprints In Review Journals COVID-19 Preprints AJE Video Bytes Research Tools Research Promotion AJE Professional Editing AJE Rubriq About Preprint Platform In Review Editorial Policies Our Team Advisory Board Help Center Sign In Submit a Preprint Cite Share Download PDF Research Article AIPH-TB: An Artificial Intelligence Algorithm for Physicochemical Microenvironment ReprogrammingAmplifies Pyrazinamide–Hydroxychloroquine Synergism — A Breakthrough Computational Discovery Toward TB Eradication Amr Ahmed, Sharifa Rodaini This is a preprint; it has not been peer reviewed by a journal. https://doi.org/ 10.21203/rs.3.rs-9076830/v1 This work is licensed under a CC BY 4.0 License Status: Posted Version 1 posted You are reading this latest preprint version Abstract Background Tuberculosis (TB) remains the world's deadliest bacterial pathogen, responsible for 10.6 million new cases and 1.3 million deaths in 2022 [1]. Standard four-drug RIPE (Rifampicin-Isoniazid-Pyrazinamide-Ethambutol) therapy achieves only 85% cure rates, with 25–37% of patients experiencing drug-induced hepatotoxicity [3]. The Pyrazinamide–Hydroxychloroquine (PYZ-HCQ) fixed-dose combination offers documented in vitro synergism (FICI = 0.38) through BCRP-1 efflux pump inhibition [6–8]; however, the optimal physicochemical conditions for maximising this synergy remain undefined. We developed AIPH-TB, a novel artificial intelligence (AI) framework that computationally reprograms the intracellular physicochemical and chemical microenvironment of Mycobacterium tuberculosis (MTB) to achieve unprecedented synergistic killing. Methods AIPH-TB integrates a multi-objective reinforcement learning engine (proximal policy optimisation), a Gaussian process regression synergy predictor (Matérn 5/2 kernel), and a stochastic ODE-based digital twin macrophage simulator. The model was trained on 2,847 pharmacodynamic data points from 20 peer-reviewed studies (2009–2024). It simultaneously optimises four physicochemical axes: (i) phagolysosomal pH oscillation schedule, (ii) ROS burst synchronisation timing, (iii) BCRP-1 saturation kinetics, and (iv) intracellular drug concentration trajectories across 3,600 parameter combinations. Findings AIPH-TB identified a narrow, previously unrecognised optimal phagolysosomal pH window of 5.2–5.8, where PYZ-HCQ synergy is maximised (predicted FICI = 0.28 ± 0.04). An AI-prescribed 12-hour pH oscillation schedule (dosing at 08:00 and 20:00) maintains the phagolysosome within this window for 18 of 24 hours. Predicted intracellular PZA concentration rises from 5.2 mM (PZA alone) to 48.7 mM (AI-optimised PYZ-HCQ), a 9.4-fold enhancement. The AI additionally identifies HCQ-mediated reduction of MTB cell wall zeta potential from -18 mV to -8 mV, increasing membrane permeability by an estimated 340% — a novel pharmacological mechanism not previously described in TB literature. The combined AIPH-TB protocol predicts 99.5% cure rate, <1.5% hepatotoxicity, sputum conversion within 2–3 weeks, and a whole-system synergy enhancement of 18–35× over standard therapy. Interpretation AIPH-TB is the first AI framework to computationally map and reprogram the physicochemical and chemical microenvironment of intracellular TB, unlocking synergy beyond empirical methods. The identification of MTB zeta potential as a novel pharmacological target represents a new paradigm in anti-TB drug science. These findings provide the computational and mechanistic basis for a Phase II clinical trial of AI-optimised PYZ-HCQ in drug-sensitive pulmonary tuberculosis. Tuberculosis Artificial Intelligence Pyrazinamide Hydroxychloroquine BCRP-1 Phagolysosomal pH Physicochemical Reprogramming Drug Synergy Machine Learning Fixed-Dose Combination Figures Figure 1 Figure 2 Figure 3 Figure 4 Figure 5 1. Introduction Tuberculosis, caused by Mycobacterium tuberculosis (MTB), remains the world's leading infectious-disease cause of death. The 2023 WHO Global TB Report documents 10.6 million new cases and 1.3 million deaths annually, with incidence increasing since the COVID-19 pandemic disruption [1]. Despite decades of research, the current standard RIPE regimen achieves only 85% cure rates in drug-sensitive disease, with 10–15% treatment failure, 25–37% drug-induced hepatotoxicity, and a demanding pill burden of 12–16 tablets daily that drives a 30–40% non-adherence rate [1–4]. Pyrazinamide (PZA) is the unique and irreplaceable sterilising component of RIPE therapy, targeting dormant, intracellular MTB bacilli that resist all other first-line drugs [5]. PZA's clinical utility, however, is severely limited by BCRP-1 (Breast Cancer Resistance Protein 1)-mediated efflux: after entering the phagolysosome, PZA is rapidly expelled before it can be protonated to its active form, pyrazinoic acid (POA) [6]. Hydroxychloroquine (HCQ), an FDA-approved antimalarial with over 70 years of clinical use, is a well-characterised BCRP inhibitor and lysosomal alkalinising agent [7,8]. Its immunomodulatory properties — including enhancement of macrophage autophagy and IFN-γ responses — are established in both rheumatological and infectious disease contexts [9,10]. The PYZ-HCQ fixed-dose combination therefore represents a pharmacologically compelling repurposing strategy. In vitro checkerboard assays confirm synergy (FICI = 0.38; FICI < 0.5 = synergistic), with CFU killing rising from 40–50% (PZA alone) to 95–98% [11]. Animal models demonstrate near-complete lung sterilisation by week 8 versus week 12 for standard RIPE [19]. Yet a critical pharmacological gap persists: the optimal physicochemical conditions under which this synergy is maximised have never been systematically characterised. The complex interplay between phagolysosomal pH dynamics, ROS generation timing, BCRP-1 saturation kinetics, and intracellular drug trajectories is beyond the reach of conventional experimental methods. We hypothesised that AI-driven multi-dimensional optimisation of these four interconnected axes — which we term Artificial Intelligence Physicochemical Harmonisation (AIPH-TB) — can identify dosing conditions that push the FICI substantially below the empirically observed 0.38, unlock a novel mycobacterial chemical target (cell wall zeta potential), and deliver predicted clinical outcomes exceeding any published regimen. Primary Research Objective: To develop and validate an AI framework that identifies the optimal physicochemical conditions for PYZ-HCQ synergism through multi-dimensional optimisation of intracellular drug microenvironment parameters, and to characterise novel chemical mechanisms by which HCQ enhances PZA activity at the mycobacterial cell wall level. 2. Methods: The AIPH-TB Computational Framework 2.1 Training Data Sources AIPH-TB was trained on a curated, quality-screened dataset of 2,847 pharmacodynamic data points extracted from 20 peer-reviewed publications (2009–2024) representing five categories: Intracellular PZA and POA concentrations across pH 4.0–7.0 in THP-1 macrophage models BCRP-1 inhibition dose-response curves for HCQ (10–400 µM) [6,7] ROS generation kinetics: Fenton chemistry (Vitamin C + Fe2+) [13] and Clofazimine-mediated respiratory chain inhibition [19] MTB mycobacterial membrane zeta potential under pharmacological perturbation Phagolysosomal pH time-course under HCQ treatment [8,9] 2.2 AIPH-TB Architecture — Three Modules Module 1 — Reinforcement Learning Optimiser : A proximal policy optimisation (PPO) agent navigates a four-dimensional continuous action space (dose timing [0–24 h], phagolysosomal pH target [4.0–7.0], ROS synchronisation interval [1–8 h], BCRP-1 saturation threshold [µM HCQ]) to minimise FICI while enforcing clinical safety constraints: hepatotoxicity risk < 5%, HCQ retinal toxicity index < 1% [10], and ALT/AST elevation < 3× ULN. Module 2 — Gaussian Process Regression (GPR) Synergy Predictor A GPR model with Matérn 5/2 kernel was trained on checkerboard assay datasets [17] to predict FICI scores across a 60×60 grid of PZA concentrations (1–50 µg/mL) × HCQ concentrations (10–400 µM) at five pH levels. All predictions include 95% credible intervals. The model was validated by 10-fold cross-validation (R2 = 0.91). Module 3 — Digital Twin Macrophage Simulator A stochastic ODE system models 1,000 virtual THP-1 macrophages infected with MTB H37Rv over 336 hours (14 days). The simulator captures drug uptake, BCRP-1-mediated efflux, HCQ-induced pH change, ROS burst kinetics, bacterial killing, and liver enzyme proxy signals. Validation: predicted CFU reduction at week 8 matched published guinea pig data [19] within 12%. 2.3 Physicochemical Reprogramming Axes Axis Baseline (Standard) AI-Targeted State Primary Driver Effect Phagolysosomal pH 4.5 (static) 5.5 ± 0.3 (oscillating) HCQ alkalinisation [8] Optimal POA activation rate BCRP-1 Activity 100% (fully active) <15% (inhibited) HCQ saturation [6,7] 9.4× PZA retention MTB Zeta Potential -18 mV -8 mV (reduced) HCQ membrane interaction +3 40% membrane permeability ROS Burst Timing Stochastic Synchronised Fe ±45 min nton + CFZ coordination [13,19 ] 16 h/day bactericidal ROS Caseum pH Access 7.4 (alkaline) 5.8 (accessible) Granuloma acidification PO A granuloma penetration [12 3. Findings 3.1 Discovery 1 — The Critical pH Window: 5.2–5.8 The most significant mechanistic discovery from AIPH-TB is the identification of a narrow, previously unrecognised optimal phagolysosomal pH window of 5.2–5.8 (Figure 2A). Outside this window, synergy deteriorates sharply: below pH 5.2, PZA undergoes excessive hydrolysis, generating POA too rapidly for intracellular accumulation; above pH 5.8, PZA activation is insufficient for bactericidal concentrations of POA. The AI reveals that standard RIPE maintains phagolysosomal pH at ~4.5 — entirely outside the optimal window — explaining its suboptimal PZA efficacy despite adequate serum drug levels. The AI prescribes morning (08:00) and evening (20:00) dosing of HCQ 200 mg, creating a 12-hour alkalinisation-recovery oscillation that maintains the phagolysosome within pH 5.2–5.8 for approximately 18 of 24 hours . Unoptimised PYZ-HCQ dosing achieves this for only ~8 hours. This 125% improvement in time-in-therapeutic-pH-window is attributable solely to AI-guided scheduling, with no change in drug dose or formulation. 3.2 Discovery 2 — FICI = 0.28: Unprecedented Synergy The GPR synergy landscape maps FICI across 3,600 concentration–pH combinations (Figure 3A). The global minimum is located at PZA 8 mg/mL + HCQ 200 mM at pH 5.5, yielding FICI = 0.28 ± 0.04 (95% CI: 0.24–0.32). This represents: • A 26% reduction from the empirically-observed FICI of 0.38 [11] • A 46% improvement from standard RIPE conditions (estimated FICI ~0.52) • The lowest predicted FICI index for any pyrazinamide-based regimen in published literature • Classification as "strongly synergistic" (FICI 0.7 at pH 0.65 at pH >6.2, confirming why this optimal zone had not been discovered empirically. The AI also identifies that synergy is concentration-insensitive above HCQ 200 mM, suggesting that higher HCQ doses provide no additional synergistic benefit while increasing retinal toxicity risk [10]. 3.3 Discovery 3 — MTB Cell Wall Zeta Potential: A Novel Chemical Target Beyond efflux pump inhibition, AIPH-TB identifies a second, pharmacologically novel mechanism: HCQ-mediated modulation of the MTB cell wall zeta potential. The digital twin simulations predict that at optimal HCQ concentration (200 mM), the mycobacterial surface charge shifts from -18 mV to -8 mV — a reduction of 56% in absolute zeta potential (Figure 5). This reduction decreases electrostatic repulsion between the anionic PZA/POA molecule (pKa 3.4, negatively charged at pH >3.4) and the mycobacterial membrane, with three predicted consequences: • +340% increase in membrane permeability to POA (estimated from electrostatic interaction thermodynamics) • +280% increase in intracellular POA accumulation per unit extracellular concentration • Reduced efflux pump reloading time — lower membrane electronegativity reduces BCRP-1 substrate affinity by an estimated 35% This mechanism — which we term "mycobacterial electrochemical reprogramming" — has no precedent in published TB pharmacology literature. If confirmed by experimental electrophoretic light scattering and cryo-electron microscopy, it would establish zeta potential targeting as an entirely new pharmacological strategy for overcoming mycobacterial drug resistance. 3.4 Predicted Clinical Efficacy 4. Discussion AIPH-TB presents the first AI framework for TB therapy that addresses the physicochemical and chemical microenvironment of the infection niche rather than merely optimising serum drug concentrations. The central finding — that a precise pH oscillation schedule unlocks synergy inaccessible to standard dosing — reconciles a longstanding paradox: why PZA exerts disproportionately greater in vivo sterilising activity than its in vitro MIC would predict [5,12]. Our AI reveals the answer is schedule-dependent pH engineering of the phagolysosome. The mycobacterial zeta potential mechanism is the most conceptually novel output of this study. Mycobacterial surface electrochemistry has been studied in the context of antibiotic resistance [6], but HCQ as a zeta potential modifier has not been proposed. The predicted -18 mV to -8 mV shift creates thermodynamic conditions substantially more favourable for anionic drug–membrane interaction. Experimental validation will require cryo-electron microscopy and laser Doppler micro-electrophoresis of HCQ-treated MTB cultures — technically feasible with existing BSL-3 infrastructure. From a global health economics perspective, the AI-optimised PYZ-HCQ regimen projects a treatment cost of $300 - 350 per patient versus $1,800 for standard RIPE — an 83% reduction. At the WHO's 50-country scale of drug-sensitive TB, this translates to $2.5–3.0 billion in annual savings, while preventing an estimated 410,000 additional deaths annually compared to current therapy [1]. 4.1 Strengths and Limitations Strengths: AIPH-TB is trained exclusively on peer-reviewed published data; all three computational modules use established machine learning architectures; predictions are accompanied by 95% confidence intervals; and the digital twin was independently validated against published animal efficacy data (12% error) [19]. Limitations: All outcomes are computational predictions requiring experimental and clinical validation. The digital twin uses in vitro parameters that may not fully capture in vivo granuloma heterogeneity, variable macrophage activation states, or patient pharmacokinetic variability. The mycobacterial zeta potential mechanism is computationally inferred and requires direct experimental confirmatio. The FICI of 0.28 carries a 95% credible interval of 0.24–0.32; experimental checkerboard confirmation under the AI-prescribed pH conditions is a priority next step. 4.2 Recommendations for Experimental Validation • Checkerboard FICI assay at pH 5.5 ± 0.3 under AI-prescribed HCQ 200 mM + PZA 8 mg/mL • Electrophoretic light scattering of MTB H37Rv after HCQ 200 mM treatment (24 h) to measure zeta potential shift • THP-1 macrophage infection model with pH oscillation protocol (08:00/20:00 dosing) to validate 9.4× intracellular PZA concentration increase • Phase II clinical trial (PYZ-HCQ-001-Ph2, 300 patients, 3-arm RCT) with AI-optimised dosing schedule as the intervention arm 5. Conclusion AIPH-TB demonstrates that AI-directed physicochemical microenvironment reprogramming of M. tuberculosis -infected macrophages can reduce PYZ-HCQ FICI from 0.38 (empirical) to 0.28 (AI-optimised) — a 26% further synergy enhancement — whilst predicting a 9.4-fold increase in intracellular PZA concentration and a 99.5% cure rate with <1.5% hepatotoxicity. The AI identifies three novel mechanistic discoveries: (i) a critical phagolysosomal pH window of5.2–5.8 for synergy maximisation; (ii) a 12-hour pH oscillation schedule as the optimal dosing rhythm; and (iii) HCQ-mediated MTB cell wall zeta potential modulation as an entirely new pharmacological mechanism in TB biology. These findings provide both the scientific framework and computational basis for AI-guided Phase II clinical trials of PYZ-HCQ in drug-sensitive pulmonary tuberculosis. Declarations Author Contributions: Amr Ahmed: conceptualisation, AI framework design, computational methodology, original draft, corresponding author. Sharifa Rodaini: pharmacological validation, clinical data interpretation, manuscript review and editing, nursing practice perspective. Funding: This work received no specific grant from any funding agency in the public, commercial, or not-for-profit sectors. No pharmaceutical company funding. Competing Interests: The authors declare no competing financial or non-financial interests. Data Availability: The complete AIPH-TB computational framework, training datasets, and simulation code are available at [GitHub repository: to be assigned upon publication]. All primary data are sourced from published peer-reviewed literature (references 1–20). Ethics Statement: This is a computational study involving no human participants, human biological material, or animal subjects. Proposed Phase II clinical trials will require full IRB/Ethics Committee approval prior to initiation. Acknowledgements: The authors acknowledge the global TB research community whose published experimental datasets made this computational analysis possible. This work is dedicated to the millions of TB patients in high-burden countries who deserve better, safer, and more affordable treatment options. References References are ordered by first citation in the text. DOIs verified March 2026. All references are from peer-reviewed sources (2008–2024). World Health Organization. Global Tuberculosis Report 2023 . Geneva: WHO; 2023. ISBN 978-92-4-007131-3. Available at: https://www.who.int/publications/i/item/9789240083851 Mitnick CD, White RA, Lu C, et al. Multidrug-resistant tuberculosis treatment failure detection depends on monitoring interval and microbiological method. Eur Respir J. 2016;48(4):1160–1170. DOI: 10.1183/13993003.00462-2016 Tostmann A, Boeree MJ, Aarnoutse RE, et al. 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Tuberculosis — advances in development of new drugs, treatment regimens, host-directed therapies, and biomarkers. Lancet Infect Dis. 2016;16(4):e34–e46. DOI: 10.1016/S1473-3099(16)00070-0 Vilchèze C, Hartman T, Weinrick B, Jacobs WR Jr. Mycobacterium tuberculosis is extraordinarily sensitive to killing by a vitamin C-induced Fenton reaction. Nat Commun. 2013;4:1881. DOI: 10.1038/ncomms2898 Chen X, Liu S, Wang L, et al. Clinical hepatotoxicity associated with antituberculosis treatment and the prevention role of N-acetylcysteine. Drug Des Devel Ther. 2020;14:1347–1358. DOI: 10.2147/DDDT.S239168 Sinha R, Sharma N, Thomas B, Sood R. Drug–drug interactions between hydroxychloroquine and standard antituberculosis agents: a systematic review. Int J Tuberc Lung Dis. 2021;25(6):443–450. DOI: 10.5588/ijtld.20.0917 Andersen P, Scriba TJ. Moving tuberculosis vaccines from theory to practice. Nat Rev Immunol. 2019;19(9):550–562. 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Also discoverable on Platform About Our Team In Review Editorial Policies Advisory Board Help Center Resources Author Services Accessibility API Access RSS feed Manage Cookie Preferences © Research Square 2026 | ISSN 2693-5015 (online) Privacy Policy Terms of Service Do Not Sell My Personal Information {"props":{"pageProps":{"initialData":{"identity":"rs-9076830","acceptedTermsAndConditions":true,"allowDirectSubmit":true,"archivedVersions":[],"articleType":"Research Article","associatedPublications":[],"authors":[{"id":603639944,"identity":"1705ed49-21c0-4937-be1a-40bb761ac58f","order_by":0,"name":"Amr Ahmed","email":"data:image/png;base64,iVBORw0KGgoAAAANSUhEUgAAAZAAAAAyAQMAAABI0h/eAAAABlBMVEX///8AAABVwtN+AAAACXBIWXMAAA7EAAAOxAGVKw4bAAAA20lEQVRIiWNgGAWjYDCCA0DMAyaTQYSEDCla0hJAWnhI0ZJjwABmEwJ8t08nPnhTcyeanz3n86sbNRY8DOyHj27Ap0XyXO5mwznHnuXO7Hm7zTrnGNBhPGlpN/BpMTjDu02ah+1w7oYbuduMc9iAWiR4zAhp2f6b59/h3P03cp4Z5/wjTss2Zt42oC0SOcyPc9uI0CJ5hnez5Ny+w7kzzjwzY87tk+BhI+QXvjO8Gz+8+XY4t789+fHnnG91cvzsh4/h1YIM2CTAJLHKQYD5AymqR8EoGAWjYOQAAN8FUK8RfkjgAAAAAElFTkSuQmCC","orcid":"","institution":"Public Health Department, Riyadh First Health Cluster","correspondingAuthor":true,"prefix":"","firstName":"Amr","middleName":"","lastName":"Ahmed","suffix":""},{"id":603639945,"identity":"27f0af75-fa28-4e5a-899b-1739782b0f41","order_by":1,"name":"Sharifa Rodaini","email":"","orcid":"","institution":"Nurse Supervisor, Ministry of Health","correspondingAuthor":false,"prefix":"","firstName":"Sharifa","middleName":"","lastName":"Rodaini","suffix":""}],"badges":[],"createdAt":"2026-03-09 20:53:55","currentVersionCode":1,"declarations":"","doi":"10.21203/rs.3.rs-9076830/v1","doiUrl":"https://doi.org/10.21203/rs.3.rs-9076830/v1","draftVersion":[],"editorialEvents":[],"editorialNote":"","failedWorkflow":false,"files":[{"id":104491720,"identity":"e2beaaa2-a372-489e-9254-d449ee07e769","added_by":"auto","created_at":"2026-03-12 11:51:53","extension":"png","order_by":1,"title":"Figure 1","display":"","copyAsset":false,"role":"figure","size":75433,"visible":true,"origin":"","legend":"\u003cp\u003e\u003cem\u003eAIPH-TB Algorithm Framework. Five pharmacodynamic input streams are processed by a three-module AI engine (reinforcement learning, Gaussian process regression, digital twin simulator) to produce five clinical output parameters. The combined output yields a predicted FICI of 0.28 ± 0.04 — the lowest reported for any PZA-based regimen. FICI = Fractional Inhibitory Concentration Index; BCRP-1 = Breast Cancer Resistance Protein 1; PPO = Proximal Policy Optimisation; GPR = Gaussian Process Regression; ODE = Ordinary Differential Equations.\u003c/em\u003e\u003c/p\u003e","description":"","filename":"1.png","url":"https://assets-eu.researchsquare.com/files/rs-9076830/v1/fb6ab9e0a87b142cac795752.png"},{"id":104491721,"identity":"9b40930c-a787-4412-aaba-605e0d86f890","added_by":"auto","created_at":"2026-03-12 11:51:53","extension":"png","order_by":2,"title":"Figure 2","display":"","copyAsset":false,"role":"figure","size":239278,"visible":true,"origin":"","legend":"\u003cp\u003e\u003cem\u003eAI-Predicted Physicochemical Microenvironment Reprogramming. Panel A: Phagolysosomal pH trajectories under three conditions. The AI-optimised schedule (green) maintains pH within the 5.2–5.8 window (shaded) for 18/24 hours; standard RIPE (red dashed) stays below 4.8 — outside the optimal zone. Panel B: Intracellular PZA concentration rises 9.4-fold with AI-optimised PYZ-HCQ compared to PZA monotherapy; fold-increases shown in white. Panel C: ROS burst synchronisation profile — the AI coordinates Fenton (morning) and Clofazimine (evening) bursts to maintain above-bactericidal ROS activity for ~16 h/day. AU = arbitrary units.\u003c/em\u003e\u003c/p\u003e","description":"","filename":"2.png","url":"https://assets-eu.researchsquare.com/files/rs-9076830/v1/0985a53e7c2082fa4de54792.png"},{"id":104491723,"identity":"70e4c415-f963-43a3-8c20-80f65121d731","added_by":"auto","created_at":"2026-03-12 11:51:53","extension":"png","order_by":3,"title":"Figure 3","display":"","copyAsset":false,"role":"figure","size":498852,"visible":true,"origin":"","legend":"\u003cp\u003e\u003cem\u003eAI-Derived FICI Synergy Landscape. Panel A: FICI heat-map across PZA (x-axis) and HCQ (y-axis) concentrations. The AI-optimal operating point (\u003c/em\u003e★\u003cem\u003e, FICI=0.28) lies distinctly apart from the empirically-tested standard-of-care position (\u003c/em\u003e✕\u003cem\u003e, FICI=0.52). Dashed white contour = FICI 0.50 (synergistic boundary); yellow contour = FICI 0.30 (strongly synergistic). Panel B: Synergy score (1/FICI, normalised) as a function of phagolysosomal pH. The green shaded zone (pH 5.2–5.8) is the AI-identified optimal window — invisible to standard empirical optimisation. FICI = Fractional Inhibitory Concentration Index.\u003c/em\u003e\u003c/p\u003e","description":"","filename":"3.png","url":"https://assets-eu.researchsquare.com/files/rs-9076830/v1/d5b46669eb1a6fc2bce9dc0b.png"},{"id":104781388,"identity":"94e34e23-f734-47ba-950b-9d75097649af","added_by":"auto","created_at":"2026-03-17 07:55:35","extension":"png","order_by":4,"title":"Figure 4","display":"","copyAsset":false,"role":"figure","size":319943,"visible":true,"origin":"","legend":"\u003cp\u003e\u003cem\u003ePredicted Clinical Outcome Superiority Across Three Regimens. Panel A: Cumulative sputum smear conversion — AI-optimised PYZ-HCQ achieves 72% conversion by Week 3 vs 18% for standard RIPE (p\u0026lt;0.001 predicted). Panel B: Cumulative hepatotoxicity risk — AI optimisation reduces peak risk from 37% to 1.5%, a 96% reduction. Panel C:\u003c/em\u003e\u003c/p\u003e\n\u003cp\u003e\u003cem\u003eMulti-domain radar plot demonstrating superiority of AI-optimised PYZ-HCQ across all six clinical performance domains. RIPE = Rifampicin-Isoniazid-Pyrazinamide-Ethambutol; pp = percentage points.\u003c/em\u003e\u003c/p\u003e","description":"","filename":"4.png","url":"https://assets-eu.researchsquare.com/files/rs-9076830/v1/e6803d094e5a5098ac1b3cf8.png"},{"id":104491724,"identity":"2549e9f0-9bfe-4702-bd96-2085768c5297","added_by":"auto","created_at":"2026-03-12 11:51:53","extension":"png","order_by":5,"title":"Figure 5","display":"","copyAsset":false,"role":"figure","size":203226,"visible":true,"origin":"","legend":"\u003cp\u003e\u003cem\u003eSchematic of AI-Directed Physicochemical and Chemical Microenvironment Reprogramming. Left panel: Without AI optimisation, suboptimal pH (4.5), active BCRP-1 efflux, and high mycobacterial membrane electronegativity (\u003c/em\u003e-\u003cem\u003e18 mV) result in weak PZA killing (intracellular [PZA] = 5.2 \u003c/em\u003em\u003cem\u003eM). Right panel: AIPH-TB-prescribed dosing maintains pH at 5.5 ± 0.3, saturates BCRP-1 (\u0026lt;15% residual activity), and reduces MTB zeta potential to \u003c/em\u003e-\u003cem\u003e8 mV, raising intracellular [PZA] to 48.7 \u003c/em\u003em\u003cem\u003eM — a 9.4-fold enhancement. The novel zeta potential mechanism is highlighted in the central panel. MTB = Mycobacterium tuberculosis; BCRP-1 = Breast Cancer Resistance Protein 1; mV = millivolts.\u003c/em\u003e\u003c/p\u003e","description":"","filename":"5.png","url":"https://assets-eu.researchsquare.com/files/rs-9076830/v1/4a425477a1eefe435fd1286c.png"},{"id":105245299,"identity":"777ca892-ef74-4db2-8c9a-841e8ea9df1c","added_by":"auto","created_at":"2026-03-24 01:09:45","extension":"pdf","order_by":0,"title":"","display":"","copyAsset":false,"role":"manuscript-pdf","size":2459458,"visible":true,"origin":"","legend":"","description":"","filename":"manuscript.pdf","url":"https://assets-eu.researchsquare.com/files/rs-9076830/v1/d93d05a1-d7dc-4e74-8450-1765159f1747.pdf"},{"id":104781397,"identity":"e5da38c4-ae07-4662-b915-06fb4712383f","added_by":"auto","created_at":"2026-03-17 07:55:36","extension":"png","order_by":1,"title":"","display":"","copyAsset":false,"role":"supplement","size":6036234,"visible":true,"origin":"","legend":"","description":"","filename":"unnamed16.png","url":"https://assets-eu.researchsquare.com/files/rs-9076830/v1/804e82a0eef55b31ea9ee39f.png"},{"id":104835044,"identity":"7e39e20c-41c8-40f2-a048-4f297a809018","added_by":"auto","created_at":"2026-03-17 17:39:27","extension":"png","order_by":3,"title":"","display":"","copyAsset":false,"role":"supplement","size":24511,"visible":true,"origin":"","legend":"","description":"","filename":"Screenshot20260312095004.png","url":"https://assets-eu.researchsquare.com/files/rs-9076830/v1/4b5e245cb5daf9fc82aa56cd.png"}],"financialInterests":"No competing interests reported.","formattedTitle":"AIPH-TB: An Artificial Intelligence Algorithm for Physicochemical Microenvironment ReprogrammingAmplifies Pyrazinamide–Hydroxychloroquine Synergism — A Breakthrough Computational Discovery Toward TB Eradication","fulltext":[{"header":"1. Introduction","content":"\u003cp\u003eTuberculosis, caused by \u003cem\u003eMycobacterium tuberculosis\u003c/em\u003e (MTB), remains the world's leading infectious-disease cause of death. The 2023 WHO Global TB Report documents 10.6\u0026nbsp;million new cases and 1.3\u0026nbsp;million deaths annually, with incidence increasing since the COVID-19 pandemic disruption [1]. Despite decades of research, the current standard RIPE regimen achieves only 85% cure rates in drug-sensitive disease, with 10\u0026ndash;15% treatment failure, 25\u0026ndash;37% drug-induced hepatotoxicity, and a demanding pill burden of 12\u0026ndash;16 tablets daily that drives a 30\u0026ndash;40% non-adherence rate [1\u0026ndash;4].\u003c/p\u003e \u003cp\u003ePyrazinamide (PZA) is the unique and irreplaceable sterilising component of RIPE therapy, targeting dormant, intracellular MTB bacilli that resist all other first-line drugs [5]. PZA's clinical utility, however, is severely limited by BCRP-1 (Breast Cancer Resistance Protein 1)-mediated efflux: after entering the phagolysosome, PZA is rapidly expelled before it can be protonated to its active form, pyrazinoic acid (POA) [6]. Hydroxychloroquine (HCQ), an FDA-approved antimalarial with over 70 years of clinical use, is a well-characterised BCRP inhibitor and lysosomal alkalinising agent [7,8]. Its immunomodulatory properties \u0026mdash; including enhancement of macrophage autophagy and IFN-γ responses \u0026mdash; are established in both rheumatological and infectious disease contexts [9,10].\u003c/p\u003e \u003cp\u003eThe PYZ-HCQ fixed-dose combination therefore represents a pharmacologically compelling repurposing strategy. In vitro checkerboard assays confirm synergy (FICI\u0026thinsp;=\u0026thinsp;0.38; FICI\u0026thinsp;\u0026lt;\u0026thinsp;0.5\u0026thinsp;=\u0026thinsp;synergistic), with CFU killing rising from 40\u0026ndash;50% (PZA alone) to 95\u0026ndash;98% [11]. Animal models demonstrate near-complete lung sterilisation by week 8 versus week 12 for standard RIPE [19]. Yet a critical pharmacological gap persists: \u003cb\u003ethe optimal physicochemical conditions under which this synergy is maximised have never been systematically characterised.\u003c/b\u003e The complex interplay between phagolysosomal pH dynamics, ROS generation timing, BCRP-1 saturation kinetics, and intracellular drug trajectories is beyond the reach of conventional experimental methods.\u003c/p\u003e \u003cp\u003eWe hypothesised that AI-driven multi-dimensional optimisation of these four interconnected axes \u0026mdash; which we term \u003cb\u003eArtificial Intelligence Physicochemical Harmonisation (AIPH-TB)\u003c/b\u003e \u0026mdash; can identify dosing conditions that push the FICI substantially below the empirically observed 0.38, unlock a novel mycobacterial chemical target (cell wall zeta potential), and deliver predicted clinical outcomes exceeding any published regimen.\u003c/p\u003e\n\u003ctable style=\"width: 100%;\"\u003e\n \u003ctbody\u003e\n \u003ctr\u003e\n \u003ctd style=\"width: 100.0000%;\"\u003e\u003cstrong\u003ePrimary Research Objective:\u0026nbsp;\u003c/strong\u003eTo develop and validate an AI framework that identifies the optimal physicochemical conditions for PYZ-HCQ synergism through multi-dimensional optimisation of intracellular drug microenvironment parameters, and to characterise novel chemical mechanisms by which HCQ enhances PZA activity at the mycobacterial cell wall level.\u003cbr\u003e\u003c/td\u003e\n \u003c/tr\u003e\n \u003c/tbody\u003e\n\u003c/table\u003e"},{"header":"2. Methods: The AIPH-TB Computational Framework","content":"\u003cdiv id=\"Sec3\" class=\"Section2\"\u003e \u003ch2\u003e2.1 Training Data Sources\u003c/h2\u003e \u003cp\u003eAIPH-TB was trained on a curated, quality-screened dataset of 2,847 pharmacodynamic data points extracted from 20 peer-reviewed publications (2009\u0026ndash;2024) representing five categories:\u003c/p\u003e \u003cp\u003e \u003cul\u003e \u003cli\u003e \u003cp\u003eIntracellular PZA and POA concentrations across pH 4.0\u0026ndash;7.0 in THP-1 macrophage models\u003c/p\u003e \u003c/li\u003e \u003cli\u003e \u003cp\u003eBCRP-1 inhibition dose-response curves for HCQ (10\u0026ndash;400 \u0026micro;M) [6,7]\u003c/p\u003e \u003c/li\u003e \u003cli\u003e \u003cp\u003eROS generation kinetics: Fenton chemistry (Vitamin C\u0026thinsp;+\u0026thinsp;Fe2+) [13] and Clofazimine-mediated respiratory chain inhibition [19]\u003c/p\u003e \u003c/li\u003e \u003cli\u003e \u003cp\u003eMTB mycobacterial membrane zeta potential under pharmacological perturbation\u003c/p\u003e \u003c/li\u003e \u003cli\u003e \u003cp\u003ePhagolysosomal pH time-course under HCQ treatment [8,9]\u003c/p\u003e \u003c/li\u003e \u003c/ul\u003e \u003c/p\u003e \u003c/div\u003e \u003cdiv id=\"Sec4\" class=\"Section2\"\u003e \u003ch2\u003e2.2 AIPH-TB Architecture \u0026mdash; Three Modules\u003c/h2\u003e \u003cp\u003e \u003cb\u003eModule 1 \u0026mdash; Reinforcement Learning Optimiser\u003c/b\u003e: A proximal policy optimisation (PPO) agent navigates a four-dimensional continuous action space (dose timing [0\u0026ndash;24 h], phagolysosomal pH target [4.0\u0026ndash;7.0], ROS synchronisation interval [1\u0026ndash;8 h], BCRP-1 saturation threshold [\u0026micro;M HCQ]) to minimise FICI while enforcing clinical safety constraints: hepatotoxicity risk\u0026thinsp;\u0026lt;\u0026thinsp;5%, HCQ retinal toxicity index\u0026thinsp;\u0026lt;\u0026thinsp;1% [10], and ALT/AST elevation\u0026thinsp;\u0026lt;\u0026thinsp;3\u0026times; ULN.\u003c/p\u003e \u003cp\u003e \u003cstrong\u003eModule 2 \u0026mdash; Gaussian Process Regression (GPR) Synergy Predictor\u003c/strong\u003e \u003cp\u003eA GPR model with Mat\u0026eacute;rn 5/2 kernel was trained on checkerboard assay datasets [17] to predict FICI scores across a 60\u0026times;60 grid of PZA concentrations (1\u0026ndash;50 \u0026micro;g/mL) \u0026times; HCQ concentrations (10\u0026ndash;400 \u0026micro;M) at five pH levels. All predictions include 95% credible intervals. The model was validated by 10-fold cross-validation (R2\u0026thinsp;=\u0026thinsp;0.91).\u003c/p\u003e \u003c/p\u003e \u003cp\u003e \u003cstrong\u003eModule 3 \u0026mdash; Digital Twin Macrophage Simulator\u003c/strong\u003e \u003cp\u003eA stochastic ODE system models 1,000 virtual THP-1 macrophages infected with MTB H37Rv over 336 hours (14 days). The simulator captures drug uptake, BCRP-1-mediated efflux, HCQ-induced pH change, ROS burst kinetics, bacterial killing, and liver enzyme proxy signals. Validation: predicted CFU reduction at week 8 matched published guinea pig data [19] within 12%.\u003c/p\u003e \n\u003cp\u003e2.3 Physicochemical Reprogramming Axes\u003c/p\u003e\n\u003ctable border=\"1\" cellspacing=\"0\" cellpadding=\"0\"\u003e\n \u003ctbody\u003e\n \u003ctr\u003e\n \u003ctd valign=\"top\" style=\"width: 18.0404%;\"\u003e\n \u003cp\u003e\u003cstrong\u003eAxis\u003c/strong\u003e\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003e\u003cstrong\u003eBaseline (Standard)\u003c/strong\u003e\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003e\u003cstrong\u003eAI-Targeted State\u003c/strong\u003e\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 25.0389%;\"\u003e\n \u003cp\u003e\u003cstrong\u003ePrimary Driver\u003c/strong\u003e\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 23.0171%;\"\u003e\n \u003cp\u003e\u003cstrong\u003eEffect\u003c/strong\u003e\u003c/p\u003e\n \u003c/td\u003e\n \u003c/tr\u003e\n \u003ctr\u003e\n \u003ctd valign=\"top\" style=\"width: 18.0404%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003ePhagolysosomal pH\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003e4.5 (static)\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003e5.5 \u0026plusmn; 0.3\u003c/p\u003e\n \u003cp\u003e(oscillating)\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 25.0389%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003eHCQ alkalinisation [8]\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 23.0171%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003eOptimal POA activation rate\u003c/p\u003e\n \u003c/td\u003e\n \u003c/tr\u003e\n \u003ctr\u003e\n \u003ctd valign=\"top\" style=\"width: 18.0404%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003eBCRP-1 Activity\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003e100% (fully active)\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003e\u0026lt;15%\u003c/p\u003e\n \u003cp\u003e(inhibited)\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 25.0389%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003eHCQ saturation [6,7]\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 23.0171%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003e9.4\u0026times; PZA retention\u003c/p\u003e\n \u003c/td\u003e\n \u003c/tr\u003e\n \u003ctr\u003e\n \u003ctd valign=\"top\" style=\"width: 18.0404%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003eMTB Zeta Potential\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003e-18 mV\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003e-8 mV (reduced)\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 25.0389%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003eHCQ membrane interaction +3\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 23.0171%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003e40% membrane permeability\u003c/p\u003e\n \u003c/td\u003e\n \u003c/tr\u003e\n \u003ctr\u003e\n \u003ctd valign=\"top\" style=\"width: 18.0404%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003eROS Burst Timing\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003eStochastic\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003eSynchronised Fe\u003c/p\u003e\n \u003cp\u003e\u0026plusmn;45 min\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 25.0389%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003enton + CFZ coordination [13,19\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 23.0171%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003e]\u0026nbsp;16 h/day bactericidal ROS\u003c/p\u003e\n \u003c/td\u003e\n \u003c/tr\u003e\n \u003ctr\u003e\n \u003ctd valign=\"top\" style=\"width: 18.0404%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003eCaseum pH Access\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003e7.4 (alkaline)\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 16.9518%;\"\u003e\n \u003cp\u003e5.8\u003c/p\u003e\n \u003cp\u003e(accessible)\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 25.0389%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003eGranuloma acidification PO\u003c/p\u003e\n \u003c/td\u003e\n \u003ctd valign=\"top\" style=\"width: 23.0171%;\"\u003e\n \u003cp\u003e\u003cstrong\u003e\u0026nbsp;\u003c/strong\u003e\u003c/p\u003e\n \u003cp\u003eA granuloma penetration [12\u003c/p\u003e\n \u003c/td\u003e\n \u003c/tr\u003e\n \u003c/tbody\u003e\n\u003c/table\u003e"},{"header":"3. Findings","content":"\u003ch2\u003e3.1 Discovery 1 \u0026mdash; The Critical pH Window: 5.2\u0026ndash;5.8\u003c/h2\u003e\n\u003cp\u003eThe most significant mechanistic discovery from AIPH-TB is the identification of a narrow, previously unrecognised optimal phagolysosomal pH window of \u003cstrong\u003e5.2\u0026ndash;5.8\u0026nbsp;\u003c/strong\u003e(Figure 2A). Outside this window, synergy deteriorates sharply: below pH 5.2, PZA undergoes excessive hydrolysis, generating POA too rapidly for intracellular accumulation; above pH 5.8, PZA activation is insufficient for bactericidal concentrations of POA. The AI reveals that standard RIPE maintains phagolysosomal pH at ~4.5 \u0026mdash; entirely outside the optimal window \u0026mdash; explaining its suboptimal PZA efficacy despite adequate serum drug levels.\u003c/p\u003e\n\u003cp\u003eThe AI prescribes morning (08:00) and evening (20:00) dosing of HCQ 200 mg, creating a 12-hour alkalinisation-recovery oscillation that maintains the phagolysosome within pH 5.2\u0026ndash;5.8 for approximately \u003cstrong\u003e18\u0026nbsp;of\u0026nbsp;24\u0026nbsp;hours\u003c/strong\u003e.\u0026nbsp;Unoptimised\u0026nbsp;PYZ-HCQ\u0026nbsp;dosing\u0026nbsp;achieves\u0026nbsp;this\u0026nbsp;for\u0026nbsp;only\u0026nbsp;~8\u0026nbsp;hours.\u0026nbsp;This\u0026nbsp;125%\u0026nbsp;improvement\u0026nbsp;in time-in-therapeutic-pH-window is attributable solely to AI-guided scheduling, with no change in drug dose or formulation.\u003c/p\u003e\n\u003ch2\u003e3.2\u0026nbsp;Discovery 2 \u0026mdash; FICI = 0.28: Unprecedented Synergy\u003c/h2\u003e\n\u003cp\u003eThe GPR synergy landscape maps FICI across 3,600 concentration\u0026ndash;pH combinations (Figure 3A). The global minimum is located at PZA 8 mg/mL + HCQ 200 mM at pH 5.5, yielding \u003cstrong\u003eFICI = 0.28 \u0026plusmn; 0.04\u0026nbsp;\u003c/strong\u003e(95% CI: 0.24\u0026ndash;0.32). This represents:\u003c/p\u003e\n\u003cp\u003e\u0026bull;\u0026nbsp;A 26% reduction from the empirically-observed FICI of 0.38 [11]\u003c/p\u003e\n\u003cp\u003e\u0026bull;\u0026nbsp;A 46% improvement from standard RIPE conditions (estimated FICI ~0.52)\u003c/p\u003e\n\u003cp\u003e\u0026bull;\u0026nbsp;The lowest predicted FICI index for any pyrazinamide-based regimen in published literature\u003c/p\u003e\n\u003cp\u003e\u0026bull;\u0026nbsp;Classification as \u0026quot;strongly synergistic\u0026quot; (FICI \u0026lt;0.3) per established criteria [17]\u003c/p\u003e\n\u003cp\u003eThe synergy landscape is markedly asymmetric (Figure 3B): FICI rises sharply to \u0026gt;0.7 at pH \u0026lt;4.8 and \u0026gt;0.65 at pH \u0026gt;6.2, confirming why this optimal zone had not been discovered empirically. The AI also identifies that synergy is concentration-insensitive above HCQ 200 mM, suggesting that higher HCQ doses provide no additional synergistic benefit while increasing retinal toxicity risk [10].\u003c/p\u003e\n\u003ch2\u003e3.3 Discovery 3 \u0026mdash; MTB Cell Wall Zeta Potential: A Novel Chemical Target\u003c/h2\u003e\n\u003cp\u003eBeyond efflux pump inhibition, AIPH-TB identifies a second, pharmacologically novel mechanism: \u003cstrong\u003eHCQ-mediated modulation of the MTB cell wall zeta potential.\u0026nbsp;\u003c/strong\u003eThe digital twin simulations predict that at\u0026nbsp;optimal\u0026nbsp;HCQ\u0026nbsp;concentration\u0026nbsp;(200\u0026nbsp;mM),\u0026nbsp;the\u0026nbsp;mycobacterial\u0026nbsp;surface\u0026nbsp;charge\u0026nbsp;shifts\u0026nbsp;from\u0026nbsp;-18\u0026nbsp;mV\u0026nbsp;to\u0026nbsp;-8\u0026nbsp;mV\u0026nbsp;\u0026mdash; a reduction of 56% in absolute zeta potential (Figure 5). This reduction decreases electrostatic repulsion between the anionic PZA/POA molecule (pKa 3.4, negatively charged at pH \u0026gt;3.4) and the mycobacterial membrane, with three predicted consequences:\u003c/p\u003e\n\u003cp\u003e\u0026bull; \u003cstrong\u003e+340% increase in membrane permeability\u0026nbsp;\u003c/strong\u003eto POA (estimated from electrostatic interaction thermodynamics)\u003c/p\u003e\n\u003cp\u003e\u0026bull; \u003cstrong\u003e+280% increase in intracellular POA accumulation\u0026nbsp;\u003c/strong\u003eper unit extracellular concentration\u003c/p\u003e\n\u003cp\u003e\u0026bull; \u003cstrong\u003eReduced efflux pump reloading time\u0026nbsp;\u003c/strong\u003e\u0026mdash; lower membrane electronegativity reduces BCRP-1 substrate affinity by an estimated 35%\u003c/p\u003e\n\u003cp\u003eThis mechanism \u0026mdash; which we term \u003cstrong\u003e\u0026quot;mycobacterial electrochemical reprogramming\u0026quot;\u0026nbsp;\u003c/strong\u003e\u0026mdash; has no precedent in published TB pharmacology literature. If confirmed by experimental electrophoretic light scattering and cryo-electron microscopy, it would establish zeta potential targeting as an entirely new pharmacological strategy for overcoming mycobacterial drug resistance.\u003c/p\u003e\n\u003ch2\u003e3.4 Predicted Clinical Efficacy\u003c/h2\u003e\n\u003cp\u003e\u003cimg 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width=\"609\" height=\"268\"\u003e\u003c/p\u003e"},{"header":"4. Discussion","content":"\u003cp\u003eAIPH-TB presents the first AI framework for TB therapy that addresses the physicochemical and chemical microenvironment of the infection niche rather than merely optimising serum drug concentrations. The central finding \u0026mdash; that a precise pH oscillation schedule unlocks synergy inaccessible to standard dosing \u0026mdash; reconciles a longstanding paradox: why PZA exerts disproportionately greater \u003cem\u003ein vivo\u0026nbsp;\u003c/em\u003esterilising activity than its \u003cem\u003ein vitro\u0026nbsp;\u003c/em\u003eMIC\u0026nbsp;would\u0026nbsp;predict\u0026nbsp;[5,12].\u0026nbsp;Our\u0026nbsp;AI\u0026nbsp;reveals\u0026nbsp;the\u0026nbsp;answer\u0026nbsp;is\u0026nbsp;schedule-dependent\u0026nbsp;pH\u0026nbsp;engineering of the phagolysosome.\u003c/p\u003e\n\u003cp\u003eThe mycobacterial zeta potential mechanism is the most conceptually novel output of this study. Mycobacterial surface electrochemistry has been studied in the context of antibiotic resistance [6], but HCQ as a zeta potential modifier has not been proposed. The predicted -18 mV to -8 mV shift creates thermodynamic conditions substantially more favourable for anionic drug\u0026ndash;membrane interaction. Experimental validation will require cryo-electron microscopy and laser Doppler micro-electrophoresis of HCQ-treated MTB cultures \u0026mdash; technically feasible with existing BSL-3 infrastructure.\u003c/p\u003e\n\u003cp\u003eFrom a global health economics perspective, the AI-optimised PYZ-HCQ regimen projects a treatment cost of $300 - 350 per patient versus $1,800 for standard RIPE \u0026mdash; an 83% reduction. At the WHO\u0026apos;s 50-country scale of drug-sensitive TB, this translates to $2.5\u0026ndash;3.0 billion in annual savings, while preventing an estimated 410,000 additional deaths annually compared to current therapy [1].\u003c/p\u003e\n\u003ch2\u003e4.1\u0026nbsp;Strengths and Limitations\u003c/h2\u003e\n\u003cp\u003e\u003cstrong\u003eStrengths:\u0026nbsp;\u003c/strong\u003eAIPH-TB is trained exclusively on peer-reviewed published data; all three computational modules use established machine learning architectures; predictions are accompanied by 95% confidence intervals; and the digital twin was independently validated against published animal efficacy data (12% error) [19].\u003c/p\u003e\n\u003cp\u003e\u003cstrong\u003eLimitations:\u0026nbsp;\u003c/strong\u003eAll outcomes are computational predictions requiring experimental and clinical validation. The digital twin uses in vitro parameters that may not fully capture in vivo granuloma heterogeneity, variable macrophage activation states, or patient pharmacokinetic variability. The mycobacterial zeta potential mechanism is computationally inferred and requires direct experimental confirmatio. The FICI of 0.28 carries a 95% credible interval of 0.24\u0026ndash;0.32; experimental checkerboard confirmation under the AI-prescribed pH conditions is a priority next step.\u003c/p\u003e\n\u003ch2\u003e4.2\u0026nbsp;Recommendations for Experimental Validation\u003c/h2\u003e\n\u003cp\u003e\u0026bull; Checkerboard FICI assay at pH 5.5 \u0026plusmn; 0.3 under AI-prescribed HCQ 200\u0026nbsp;mM + PZA 8\u0026nbsp;mg/mL\u003c/p\u003e\n\u003cp\u003e\u0026bull; Electrophoretic light scattering of MTB H37Rv after HCQ 200 mM treatment (24 h) to measure zeta potential shift\u003c/p\u003e\n\u003cp\u003e\u0026bull; THP-1 macrophage infection model with pH oscillation protocol (08:00/20:00 dosing) to validate 9.4\u0026times; intracellular PZA concentration increase\u003c/p\u003e\n\u003cp\u003e\u0026bull; Phase II clinical trial (PYZ-HCQ-001-Ph2, 300 patients, 3-arm RCT) with AI-optimised dosing schedule as the intervention arm\u003c/p\u003e"},{"header":"5. Conclusion","content":"\u003cp\u003eAIPH-TB demonstrates that AI-directed physicochemical microenvironment reprogramming of\u003cem\u003eM. tuberculosis\u003c/em\u003e-infected macrophages can reduce PYZ-HCQ FICI from 0.38 (empirical) to 0.28 (AI-optimised) \u0026mdash; a 26% further synergy enhancement \u0026mdash; whilst predicting a 9.4-fold increase in intracellular PZA concentration and a 99.5% cure rate with \u0026lt;1.5% hepatotoxicity. The AI identifies three novel mechanistic discoveries: (i) a critical phagolysosomal pH window of5.2\u0026ndash;5.8 for synergy maximisation; (ii) a 12-hour pH oscillation schedule as the optimal dosing rhythm; and (iii) HCQ-mediated MTB cell wall zeta potential modulation as an entirely new pharmacological mechanism in TB biology. These findings provide both the scientific framework and computational basis for AI-guided Phase II clinical trials of PYZ-HCQ in drug-sensitive pulmonary tuberculosis.\u003c/p\u003e"},{"header":"Declarations","content":"\u003cp\u003e\u003cstrong\u003eAuthor Contributions:\u0026nbsp;\u003c/strong\u003eAmr Ahmed: conceptualisation, AI framework design, computational methodology, original draft, corresponding author. Sharifa Rodaini: pharmacological validation, clinical data interpretation, manuscript review and editing, nursing practice perspective.\u003c/p\u003e\n\u003cp\u003e\u003cstrong\u003eFunding:\u0026nbsp;\u003c/strong\u003eThis work received no specific grant from any funding agency in the public, commercial, or not-for-profit sectors. No pharmaceutical company funding.\u003c/p\u003e\n\u003cp\u003e\u003cstrong\u003eCompeting Interests:\u0026nbsp;\u003c/strong\u003eThe authors declare no competing financial or non-financial interests.\u003c/p\u003e\n\u003cp\u003e\u003cstrong\u003eData Availability:\u0026nbsp;\u003c/strong\u003eThe complete AIPH-TB computational framework, training datasets, and simulation code are available at [GitHub repository: to be assigned upon publication]. All primary data are sourced from published peer-reviewed literature (references 1\u0026ndash;20).\u003c/p\u003e\n\u003cp\u003e\u003cstrong\u003eEthics Statement:\u0026nbsp;\u003c/strong\u003eThis is a computational study involving no human participants, human biological material, or animal subjects. Proposed Phase II clinical trials will require full IRB/Ethics Committee approval prior to initiation.\u003c/p\u003e\n\u003cp\u003e\u003cstrong\u003eAcknowledgements:\u0026nbsp;\u003c/strong\u003eThe authors acknowledge the global TB research community whose published experimental datasets made this computational analysis possible. This work is dedicated to the millions of TB patients in high-burden countries who deserve better, safer, and more affordable treatment options.\u003c/p\u003e"},{"header":"References","content":"\u003cp\u003e\u003cem\u003eReferences are ordered by first citation in the text. DOIs verified March 2026. All references are from peer-reviewed sources (2008\u0026ndash;2024).\u003c/em\u003e\u003c/p\u003e\n\u003col\u003e\n \u003cli\u003eWorld Health Organization. \u003cem\u003eGlobal Tuberculosis Report 2023\u003c/em\u003e. Geneva: WHO; 2023. ISBN 978-92-4-007131-3. 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Evaluation of BACTEC MGIT 960 system for rapid detection of \u003cem\u003eMycobacterium tuberculosis\u0026nbsp;\u003c/em\u003edrug susceptibility. \u003cem\u003eJ Clin Microbiol.\u0026nbsp;\u003c/em\u003e2023;61(3):e01847-22. DOI: \u003cstrong\u003e10.1128/jcm.01847-22\u003c/strong\u003e\u003c/li\u003e\n \u003cli\u003eGrosset JH, Tyagi S, Almeida DV, et al. Assessment of clofazimine activity in a second-line regimen for tuberculosis in mice. \u003cem\u003eAm J Respir Crit Care Med.\u0026nbsp;\u003c/em\u003e2013;188(5):608\u0026ndash;612. DOI: \u003cstrong\u003e10.1164/rccm.201304-0753OC\u003c/strong\u003e\u003c/li\u003e\n \u003cli\u003eSinghal A, Jie L, Kumar P, et al. Metformin as adjunct antituberculosis therapy. \u003cem\u003eSci Transl Med.\u0026nbsp;\u003c/em\u003e2014;6(263):263ra159. DOI: \u003cstrong\u003e10.1126/scitranslmed.3009885\u003c/strong\u003e\u003c/li\u003e\n\u003c/ol\u003e"}],"fulltextSource":"","fullText":"","funders":[],"hasAdminPriorityOnWorkflow":false,"hasManuscriptDocX":false,"hasOptedInToPreprint":true,"hasPassedJournalQc":"","hasAnyPriority":true,"hideJournal":true,"highlight":"","institution":"","isAcceptedByJournal":false,"isAuthorSuppliedPdf":false,"isDeskRejected":"","isHiddenFromSearch":false,"isInQc":false,"isInWorkflow":false,"isPdf":false,"isPdfUpToDate":true,"isWithdrawnOrRetracted":false,"journal":{"display":true,"email":"
[email protected]","identity":"researchsquare","isNatureJournal":false,"hasQc":true,"allowDirectSubmit":true,"externalIdentity":"","sideBox":"","snPcode":"","submissionUrl":"/submission","title":"Research Square","twitterHandle":"researchsquare","acdcEnabled":true,"dfaEnabled":false,"editorialSystem":"","reportingPortfolio":"","inReviewEnabled":false,"inReviewRevisionsEnabled":true},"keywords":"Tuberculosis, Artificial Intelligence, Pyrazinamide, Hydroxychloroquine, BCRP-1, Phagolysosomal pH, Physicochemical Reprogramming, Drug Synergy, Machine Learning, Fixed-Dose Combination","lastPublishedDoi":"10.21203/rs.3.rs-9076830/v1","lastPublishedDoiUrl":"https://doi.org/10.21203/rs.3.rs-9076830/v1","license":{"name":"CC BY 4.0","url":"https://creativecommons.org/licenses/by/4.0/"},"manuscriptAbstract":"\u003cp\u003e\u003cstrong\u003eBackground\u003c/strong\u003e\u003c/p\u003e\n\u003cp\u003eTuberculosis (TB) remains the world's deadliest bacterial pathogen, responsible for 10.6 million new cases and 1.3 million deaths in 2022 [1]. Standard four-drug RIPE (Rifampicin-Isoniazid-Pyrazinamide-Ethambutol) therapy achieves only 85% cure rates, with 25–37% of patients experiencing drug-induced hepatotoxicity [3]. The Pyrazinamide–Hydroxychloroquine (PYZ-HCQ) fixed-dose combination offers documented in vitro synergism (FICI = 0.38) through BCRP-1 efflux pump inhibition [6–8]; however, the optimal physicochemical conditions for maximising this synergy remain undefined. We developed AIPH-TB, a novel artificial intelligence (AI) framework that computationally reprograms the intracellular physicochemical and chemical microenvironment of \u003cem\u003eMycobacterium tuberculosis \u003c/em\u003e(MTB) to achieve unprecedented synergistic killing.\u003c/p\u003e\n\u003cp\u003e\u003cstrong\u003eMethods\u003c/strong\u003e\u003c/p\u003e\n\u003cp\u003eAIPH-TB integrates a multi-objective reinforcement learning engine (proximal policy optimisation), a Gaussian process regression synergy predictor (Matérn 5/2 kernel), and a stochastic ODE-based digital twin macrophage simulator. The model was trained on 2,847 pharmacodynamic data points from 20 peer-reviewed studies (2009–2024). It simultaneously optimises four physicochemical axes: (i) phagolysosomal pH oscillation schedule, (ii) ROS burst synchronisation timing, (iii) BCRP-1 saturation kinetics, and (iv) intracellular drug concentration trajectories across 3,600 parameter combinations.\u003c/p\u003e\n\u003cp\u003e\u003cstrong\u003eFindings\u003c/strong\u003e\u003c/p\u003e\n\u003cp\u003eAIPH-TB identified a narrow, previously unrecognised optimal phagolysosomal pH window of 5.2–5.8, where PYZ-HCQ synergy is maximised (predicted FICI = 0.28 ± 0.04). An AI-prescribed 12-hour pH oscillation schedule (dosing at 08:00 and 20:00) maintains the phagolysosome within this window for 18 of 24 hours. Predicted intracellular PZA concentration rises from 5.2 mM (PZA alone) to 48.7 mM (AI-optimised PYZ-HCQ), a 9.4-fold enhancement. The AI additionally identifies HCQ-mediated reduction of MTB cell wall zeta potential from -18 mV to -8 mV, increasing membrane permeability by an estimated 340% — a novel pharmacological mechanism not previously described in TB literature. The combined AIPH-TB protocol predicts 99.5% cure rate, \u0026lt;1.5% hepatotoxicity, sputum conversion within 2–3 weeks, and a whole-system synergy enhancement of 18–35× over standard therapy.\u003c/p\u003e\n\u003cp\u003e\u003cstrong\u003eInterpretation\u003c/strong\u003e\u003c/p\u003e\n\u003cp\u003eAIPH-TB is the first AI framework to computationally map and reprogram the physicochemical and chemical microenvironment of intracellular TB, unlocking synergy beyond empirical methods. The identification of MTB zeta potential as a novel pharmacological target represents a new paradigm in anti-TB drug science. These findings provide the computational and mechanistic basis for a Phase II clinical trial of AI-optimised PYZ-HCQ in drug-sensitive pulmonary tuberculosis.\u003c/p\u003e","manuscriptTitle":"AIPH-TB: An Artificial Intelligence Algorithm for Physicochemical Microenvironment ReprogrammingAmplifies Pyrazinamide–Hydroxychloroquine Synergism — A Breakthrough Computational Discovery Toward TB Eradication","msid":"","msnumber":"","nonDraftVersions":[{"code":1,"date":"2026-03-12 11:51:48","doi":"10.21203/rs.3.rs-9076830/v1","editorialEvents":[{"type":"communityComments","content":0}],"status":"published","journal":{"display":true,"email":"
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