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TRIMIS

Composite Pipes and Fittings for Aero-Engines Dressing

Project

COMPIPE - Composite Pipes and Fittings for Aero-Engines Dressing


Funding origin:
European
European Union
STRIA Roadmaps:
Vehicle design and manufacturing (VDM)
Vehicle design and manufacturing
Transport mode:
Airborne
Airbone
Transport sectors:
Passenger transport
Passenger transport
Freight transport
Freight transport
Project website:
Duration:
Start date: 01/11/2012,
End date: 01/02/2015

Status: Finished
Funding details:
Total cost:
€1 800 000
EU Contribution:
€1 062 500

Overview

Objectives:

The object of this project was to update the concept of aero-engine dressing to the most advanced concepts already used in commercial aircrafts. The existing design concepts and components utilised within the engine dressings have remained largely static for a long period of time; there is little difference in the components and materials used in the engine dressings on the latest Trent engines to the early RB211’s.

In today’s competitive aero-engine market, the primary product discriminators are cost-driven. Typical cost savings of 20-30% delivered by PMCs in replacing incumbent metal parts; therefore, provide added incentive for wider application of these materials. With these impressive advantages on offer, it may seem difficult to understand why composite materials do not dominate the latest civil and military engines.

COMPipe allowed the design and manufacture of an agreed set of non-metallic pipes and support systems to replace traditional metallic variants in engine dressings. It also identified the manufacturing processes that could be used to scale up the production requirements to meet future delivery needs.

The scientific and technical objectives to reach along the project were:

  • To design and develop a new concept of non-metallic pipes and fittings suited for aero-engines, specifically drains, scavenge, sensor and vent lines
  • To select materials meeting the required environmental constrains, both in the range of temperatures and in the chemical resistance to different products present in the aero-engine, such as Skydrol hydraulic fluid, oil and aviation fuel.
  • To develop one or more manufacturing practices and to improve existing methodologies driving to:

      - To a product standard with a near to zero wall's porosity,

      - To produce 3D geometries of according to the already existing metallic technology,

      - To assess the future full automation of the process,

      - To ensure that Nadcap qualification will be reached in a short time.

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