XINTRIX

Advanced Technologies in Materials, Energy, and Motion Control through Precision Manufacturing and Collaborative Research.

XINTRIX

SF (BG)

/0025

ENERGY

We bridge precision manufacturing and applied research, supporting R&D centers with experiments, material research, energy systems, and motion control. We turn concepts into functional prototypes and production-ready solutions through our specialized lab and manufacturing network.

AM-01 /

Project & R&D Partnerships

We help labs and R&D centers transform visionary ideas into proven prototypes. Our process includes feasibility studies, design optimization, material selection, and scaled manufacturing.

Key Capabilities

Collaborative Roadmapping – Define objectives, scope, and timeline.

Cross-functional engineering – Integrate mechanical, electrical, and software teams.

Pilot Production – Validate and refine before moving to full-scale manufacturing.

AM-01 /

Precision Manufacturing

Extensive manufacturing network spans CNC milling (3-axis, 5-axis), turning, 3D printing, laser cutting, coatings, and in-process QA. We manage multi-component orders to ensure your parts meet exact specifications.

Key Capabilities

CNC Milling & Turning – High-precision, high-speed machining for metals and composites.

3D Printing – Rapid prototyping in various polymers or metal powders.

Laser Cutting – Clean, accurate cuts for quick turnaround on complex geometries.

AM-01 /

Nano-Coating Research

Our nano-coating R&D focuses on electro-spraying deposition, a non-vacuum approach that enables precise, uniform films for applications in energy storage, corrosion protection, and beyond.

Key Capabilities

Process – Electro-spraying deposition without vacuum, enabling cost-effective prototyping.

Benefits – Enhanced performance (electrical insulation, corrosion resistance, thermal properties).

Collaboration Method – We run joint experiments, produce detailed reports, and fine-tune the coating process to match your project’s needs.

Zn0

Optoelectronics, UV protection, energy storage, antimicrobial coatings

ZnO can be deposited as thin films for transparent conductive layers, photovoltaics, and gas sensors without requiring vacuum-assisted processing.

Zinc Oxide Nanoparticles

Al₂O₃

Dielectric coatings, optical coatings, corrosion resistance

Al₂O₃ forms highly stable insulating layers, making it useful for energy storage devices, optical lenses, and biomedical implants.

Aluminum Oxide Nanoparticles

CNTs

Electronics, supercapacitors, conductive coatings, aerospace materials

CNTs can be uniformly dispersed onto surfaces to create conductive networks for flexible electronics, EMI shielding, and hydrophobic coatings in airflow resistance applications.

Carbon Nanotubes

TiO₂

Self-cleaning coatings, photocatalysis, solar cells, UV protection

TiO₂ films provide hydrophilic and self-cleaning properties for optical coatings, solar panels, and antimicrobial medical devices.

Titanium Dioxide Nanoparticles

PTFE

Superhydrophobic surfaces, airflow resistance coatings, non-stick medical tools

Nano-Particles (Teflon-like Coating). PTFE can create low-friction, water-repellent, and high-durability layers for medical devices, automotive airflow coatings, and dielectric barriers.

Polytetrafluoroethylene

AgNPs

Antimicrobial coatings, conductive inks, optical sensors

AgNPs can be deposited onto surfaces for biomedical coatings, antibacterial filters, and wearable electronics without vacuum dependency.

Silver Nanoparticles

rGO

Batteries, sensors, heat dissipation, flexible electronics

GO films provide excellent electrical conductivity, hydrophobicity, and high surface area, making them ideal for energy storage, thermal management, and aerospace coatings.

Graphene Oxide

Others