Current Project — Partnership with Sherry Tech
ZAS Ceramics is currently collaborating with Sherry Tech on a project that bridges materials science and digital innovation. This partnership integrates data-driven materials development with advanced digital platforms to accelerate industrial innovation.
- Providing specialist expertise in ceramic materials processing, enabling Sherry Tech to develop intelligent automation systems for ceramic production lines.
- Advising on process optimization and material-property relationships, ensuring digital models accurately reflect real-world manufacturing behaviour.
- Collaborating on data integration between experimental results and software simulations, supporting the development of predictive and adaptive control algorithms.
Previous Research & Industry Projects
Before founding ZAS Ceramics, our lead researcher contributed to a range of academic and industrial projects focused on materials science, ceramic engineering, and sustainable manufacturing. These projects demonstrate the depth of technical expertise and innovative problem-solving that underpin our work today.
Industry Project
Johnson Tiles – Advanced Material Analysis and Process Optimization
Role: Technical Research & Development Collaborator
- Conducted compositional and microstructural analysis of ceramic tiles to improve performance and consistency.
- Developed methods for thermal and mechanical testing to optimize firing profiles and glaze adhesion.
- Optimized manufacturing parameters to improve yield, energy efficiency, and product uniformity.
- Troubleshot production issues via failure analysis and process auditing.
- Collaborated with engineers on sustainable manufacturing improvements.
- Promoted low-carbon production techniques and knowledge sharing on decarbonization in ceramics.
Academic Research Projects
Processing and Characterization of Piezoelectric Materials for Energy Harvesting
NRPU Funded — 7.5 Million PKR | Role: Principal Investigator (PI)
- Developed high-performance piezoelectric ceramics to enhance energy harvesting efficiency and reliability.
- Engineered PZT, BT, and KNN-based ceramics for mechanical-to-electrical energy conversion.
- Optimized device geometry and strain coupling for improved efficiency.
- Proposed lead-free ceramics for environmentally safe portable devices.
Establishment of Laboratory of Functional Materials and Devices at AWKUM
University-funded — 3 Million PKR | Role: Principal Investigator (PI)
- Designed and established an R&D facility for advanced functional ceramics and devices.
- Installed ferroelectric testing systems, impedance spectroscopy, and sintering units for comprehensive materials analysis.
- Enabled collaborations between national and international institutes.
- Developed new curricula and training programs on functional oxide ceramics.
Establishment of Energy Research Laboratory (ERL) at AWKUM
University-funded — 3 Million PKR | Role: Principal Investigator (PI)
- Established a dedicated facility for energy materials and device development.
- Focused on energy storage and conversion ceramics such as SOFCs and dielectric capacitors.
- Developed protocols for evaluating thermal stability and ionic conductivity of advanced ceramics.
Evaluation of Key Technologies for Ethanol-Fueled SOFC Power System of Extended Sailing Range UAV
PSF Funded — 9.6 Million PKR | Role: Co-Principal Investigator (Co-PI)
- Evaluated solid oxide fuel cell (SOFC) technologies for clean, long-range UAV applications.
- Investigated ceramic electrolyte and anode materials for improved ionic conductivity and mechanical integrity.
Environmentally Friendly Multiferroic Ceramics for Electronic Applications by Cold Sintering Method
NRPU Funded — 9.8 Million PKR | Role: Co-Principal Investigator (Co-PI)
- Developed low-temperature cold sintering techniques for high-density multiferroic ceramics.
- Characterized dielectric, ferroelectric, and magnetic coupling behavior of processed ceramics.
