C-CCarbon-Carbon
- Matrix
- Carbon
- Best at
- Highest temperature, up to 3000°C
- Typical parts
- Nozzle throats
- Leading edges
- Furnace hardware
Carbon-carbon, C-SiC and UHTC composites, and the Film Boiling CVI systems that make them. Designed and built in Bengaluru.
Carbon fibre in a carbon matrix. Rated up to 3000°C, dimensionally stable and resistant to erosion and wear. The material for nozzle throats, leading edges and furnace hardware.
A silicon carbide matrix adds high oxidation resistance and wear tolerance. Built for hot structures and friction parts, including carbon-ceramic brake discs.
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Carbon fibre reinforced polymer parts that are light, strong and stiff. For aerospace structures, UAVs and industrial components.
Discuss your partA quick guide to our three composite families. Hover over a card to see where each one shines.
C-CCarbon-Carbon
Carbon-Silicon Carbide
C-FRPStructural composites
Our proprietary densification process. A carbon precursor boils around a heated preform, filling the pores faster and more uniformly than conventional isothermal CVI.
We also build isothermal CVI and graphitisation reactors up to 3000°C, and FEA-validated composite tooling molds.
Enquire about systemsSix industries that depend on materials that survive extreme heat, wear and speed.

Thermal protection systems, hot structures and reentry components.

Hypersonic nose cones and leading edges that endure high-Mach flight.

Dimensionally stable structures for precision optics in space.

Nozzle divergents and throat inserts that resist erosion at high temperature.

Crucibles, heaters and support structures for pure, precise fabs.

Carbon-ceramic brake discs for performance and reliability.
Design, simulation, tooling, process and qualification run in parallel, with no hand-offs between suppliers.
Parts engineered for the thermal and structural load they will see.
CFD, FEA and digital twins that cut trial and error.
Molds validated by FEA before material is committed.
FB-CVI and isothermal CVI, graphitisation to 3000°C.
Testing by the team that built the part.
Siliconization, carbide-forming barriers and ultra-high-temperature ceramics (UHTCs) extend composites beyond 2000°C and protect them from oxidation.
I have spent more than twenty years on space and defense programs. I started Mysitech to push high-temperature composites and the processes behind them further, and to make India a source of these technologies.
We invest in R&D partnerships, academic collaboration and intellectual property, so that our process equipment, composite systems and simulation-based design keep moving forward.
Tell us the temperature and the load.
Carbon fibres in a carbon matrix. They keep their strength at temperatures where metals fail, with ratings up to 3000°C, and are used in rocket nozzles, hypersonic leading edges, brakes and furnace hardware.
A densification process in which a carbon precursor boils around a heated preform, filling the pores of a fibre structure faster and more uniformly than conventional isothermal CVI.
C-C offers the highest temperature capability. C-SiC adds a silicon carbide matrix for better oxidation resistance and wear tolerance in hot structures and friction parts.
Launch vehicles, defense, satellites, propulsion, semiconductor and industrial furnaces, and automotive brake systems.
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