Antimicrobial Resistance
Surveillance of resistant organisms, resistance mechanisms, and strategies — clinical, laboratory, and public-health — to confront AMR as a defining global challenge.
Research
Research focus areas
Six connected research directions that anchor Dr. Sultan's scientific work. Each links to relevant publications and, where applicable, to The Flow applied project.
Molecular Epidemiology
Using molecular tools to trace pathogens, strain relationships, and resistance patterns to inform outbreak response and long-term surveillance.
Probiotics & Gut Health
Evidence-led research on functional microbial strains and their role in human gut, metabolic, and immune health.
Food Biotechnology
Applying microbiology to food systems: safety, preservation, and the development of more nutrient-relevant formats.
AI in Healthcare
Integrating data and machine learning into microbiology workflows, diagnostics support, and clinical decision pathways.
Functional Fermented Foods
Controlled fermentation as a research-backed bridge between food science and health — the scientific basis for The Flow project.
RANinfectisafe / DEAN DCP Device
A patent-backed medical-device research direction exploring AI, biosensing, photobiological pathways, and calibrated micro-vibration for antimicrobial-resistance applications.
Environmental Biotechnology
Exploring advanced disinfection and waste-treatment technologies that connect microbiology, infection control, and safer healthcare environments.
Environmental Biotechnology
Advanced waste-treatment technologies for safer healthcare environments.
This research direction explores how microbiology-informed technologies can support safer management of healthcare-related waste streams, infection-control environments, and environmental biosafety pathways.
Light-based disinfection
UV-C Disinfection
A chemical-free disinfection approach for selected surfaces and clear liquid streams. It may support infection-control environments when used as part of validated cleaning and safety protocols.
- Strength
- Dry process with no added chemical disinfectants.
- Limitation
- Limited penetration in turbid liquids, dense materials, and shadowed surfaces.
Acoustic cavitation
Ultrasonic Treatment
Uses acoustic cavitation to disrupt microbial cells, reduce sludge volume, and support advanced oxidation pathways for selected waste-treatment applications.
- Strength
- Can support microbial disruption and pollutant breakdown pathways.
- Limitation
- Requires energy-use review, equipment-wear assessment, and application-specific validation.
Photocatalysis & adsorption
Nanotechnology-Based Treatment
Explores photocatalytic and adsorptive materials such as TiO₂ and Fe₃O₄ for pollutant removal, catalyst recovery, and advanced environmental biotechnology applications.
- Strength
- Can support high-efficiency removal under defined laboratory conditions.
- Limitation
- Requires cost analysis, lifecycle assessment, safety review, and catalyst-recovery validation before applied deployment.
Validation & compliance note
All concepts require laboratory validation, risk assessment, and compliance with Saudi and GCC healthcare-waste regulations before applied deployment.
Research pathway
How the work connects
From microbiology fundamentals through to applied food innovation — each step builds on the one before it.
- 01Microbiology
- 02Molecular Epidemiology / AMR
- 03Probiotics & Gut Health
- 04AI in Healthcare
- 05Food Biotechnology & The Flow
See the underlying science
Browse peer-reviewed publications, or open The Flow deck to see how this research lands in applied form.