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TRIMIS

Ideal Cabin Environment

Project

ICE - Ideal Cabin Environment


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
Duration:
Start date: 01/10/2005,
End date: 30/09/2008

Status: Finished
Funding details:
Total cost:
€5 932 153
EU Contribution:
€4 078 275

Overview

Background & policy context:

ICE addressed the widespread concerns about the impact of flying on the health and well-being of passengers. Changing passenger demographics, the advent of ultra-long-haul services, and specific health issues such as Deep Vein Thrombosis (DVT) and Severe Acute Respiratory Syndrome (SARS), have all combined to increase concerns. Earlier studies have been fragmented and have not determined the health-based optimum levels or studied the synergistic effects of cabin environmental parameters, nor studied cabin pressure, hypoxia (often considered the most serious single physical hazard) and possible links with DVT.

Objectives:

The key objective of ICE is to provide airframers/airlines with step-change knowledge and innovations to address the concerns about the unknown combined effects of cabin environmental parameters (including cabin pressure for the first time) on the health of passengers in commercial aircraft.

The predictive model not only considered environmental parameters but also passenger profile and flight characteristics. If these indicate health risks, the user will be able to vary individual or combined parameters to minimise risks to acceptable levels in a technically feasible and economically viable manner. ICE also drafted relevant standards, including the first scientifically based standard for cabin pressure, and provided practical design guides and operational recommendations in co-operation with stakeholders.

Methodology:

ICE produced step-change knowledge by investigating impacts of varying levels of parameters on subjects using unique large-scale aircraft cabin environment facilities (BRE's ACE and IBP FTF), and determined optimum individual and combined levels for human well-being, validated by in-flight monitoring. From these, ICE  developed predictive design models for airframers and airlines to provide, for the first time, a means by which they will be able to determine the health impact of their aircraft on their passengers.

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