Research & Development
Pioneering the Future
of Drone Technology
Built by a PhD AI architect and a 15-year drone hardware veteran. Our R&D roadmap extends from precision agriculture today to hydrogen-powered eVTOL by 2029.
R&D Credibility
The Research Behind KaiDrones
K.M. Mohsin, PhD
Founder & CEO
- ✓PhD Computational Nanoelectronics — LSU (2017)
- ✓AI/ML: LLMs, LangChain, CrewAI, RAG, vector databases
- ✓Materials modeling: DFT, molecular dynamics simulations
- ✓Creator of a best-selling vector database course on Udemy
- ✓20+ publications, h-index 11, 290+ citations
- ✓Former Intel, Micron, Sysco | Microsoft Founders Hub
Md Azizul Islam
Co-Founder & Chief Drone Engineer
- ✓M.S. Mechanical Engineering — Tennessee Tech (2025)
- ✓Thesis: morphing wing — 49.5% L/D improvement, no ailerons
- ✓15+ years drone hardware, composites, CFD, SolidWorks
- ✓Built Bangladesh's first fixed-wing VTOL drone
- ✓Tennessee Tech CLEAN (CarbonLess Electric AviatioN) project
- ✓Published IEEE, AIAA, ASME 2025 | Best Paper Award
Focus Areas
Our Research Focus Areas
Alternative Energy Systems
Our entire R&D roadmap is structured around alternative energy — going well beyond traditional lithium-polymer batteries. These are our committed research directions, not current capabilities.
Hydrogen Fuel Cell — Roadmap 2027–2028
Targeting compact, lightweight fuel cells providing up to 3× the flight time of traditional batteries — with zero emissions. Feasibility study begins 2027.
Solar Integration — Roadmap 2027+
Planned integration of high-efficiency solar panels into drone wings and bodies to extend daylight mission duration by up to 40% through continuous recharging.
Next-Gen Battery Chemistry — Roadmap 2027
Solid-state and advanced battery research beginning 2027 — targeting improved energy density, faster charging, and better thermal safety profiles.
Target Collaborations
Institutions We're Engaging
These are research institutions we are actively pursuing partnerships with — not signed MOUs. We will update this section as formal collaborations are established.
University of Texas
Aerospace Engineering
Planned collaboration on aerodynamic efficiency and propulsion for long-endurance flight.
Texas A&M University
Materials Science & Engineering
Planned collaboration on advanced composite materials for lightweight, durable drone structures.
Rice University
Electrical & Computer Engineering
Planned collaboration on next-generation battery technology and energy management systems.
National Renewable Energy Lab
Alternative Energy Division
Planned collaboration on hydrogen fuel cell miniaturization for aerial applications.
Texas Tech University
Computer Science
Planned collaboration on autonomous navigation algorithms and AI for drone systems.
Houston Advanced Research Center
Environmental Science
Planned collaboration on drone-based environmental monitoring and sustainable technologies.
Technology Roadmap
What We're Building
Our technology track from launch through 2032. Forward-looking goals — organized by what we ship, what we invent, and what we certify.
Foundation Technology
Ducted propeller design (40% endurance gain), NDAA-compliant hardware stack (ARKV6X, RFD900x), ArduPilot-based GCS, Riso Smart Sprayer integration with digital flowmeter and as-applied reporting.
Autonomy & Advanced Propulsion
Solid-state battery chemistry prototyping. Retractable wing VTOL prototype from filed patent — 3-axis wing retraction, improved hover stability in high winds. AI-powered autonomous mission planning and multi-sensor fusion nav.
Extreme Environment Systems
Arctic thermal management for battery heating and motor protection. Morphing wing AI with real-time cross-section optimization for wind gust resistance. Multi-agent swarm coordination and onboard edge computing.
eVTOL Propulsion
Tilt-rotor eVTOL propulsion system for Windifly Phase 1. Hydrogen fuel cell integration for long-endurance VTOL. Proprietary RTK GPS PCB design ($150 components vs. $600 retail). Own flight controller development begins.
Autonomous Air Mobility
Full autonomous air taxi stack — onboard AI decision-making, fleet coordination, and urban sense-and-avoid. Solar-hydrogen hybrid propulsion feasibility. Battery-as-structure design for energy storage in the airframe.
High Altitude Long Endurance
Solar-hydrogen hybrid propulsion for multi-day stratospheric flight. Lightweight composite airframe optimized for thin-air operations. Satellite-grade communications relay and autonomous multi-day mission management.
Join Our Research Network
We're actively seeking university research partners, grant collaborators, and organizations interested in advancing drone technology.