Presentation is loading. Please wait.

Presentation is loading. Please wait.

Management System of Engineering Structures

Similar presentations


Presentation on theme: "Management System of Engineering Structures"— Presentation transcript:

1 Management System of Engineering Structures
NVF Bridge Conference 2015 Mika Stenmark, Finnish Transport Agency

2 Need for a new system The present Bridge management system has an out-dated technological platform In the year 2010 highways, railways and waterways were combined under one agency => the new system must manage different structures on all traffic networks The current data model is based on bridges Tunnels, piers, canal structures and waterway navigation marks has been adapted in the system partly ‘forcing’ them into bridge structure In autumn 2014 the implementation project finally started with the working title “TREX” The goal = 1. version in spring 2016

3 Focus areas in the development
Web and mobile use Information security (= contains data important for defense) Opening the data through interfaces and services Flexibility (= need to manage different structures) Expandability Integration with documents, pictures and other file data Integration with related systems (Service Oriented Architecture) GIS (coordinate-data, map-integration) BIM-model integration User-friendliness

4 Statistics of the traffic network - roads, railways and waterways
km highways of which 800 km motorways 5 900 km railway network of which 90 % on single track 78 000 km of highway 5,350 km 4 300km coastal fairways 14,900 4 000 km inland waterways 11/6/2018

5 Engineering structures, what are they?
The Transport Agency defines engineering structures as: structures that are designed and constructed using strength calculations structural damage caused by design or construction errors can cause: danger to humans or damage to the traffic system remarkable repair costs to the structure or its immediate environment

6 State owned engineering structures
Bridges ~

7 State owned engineering structures
Bridges ~ Tunnels ~ 90

8 State owned engineering structures
Bridges ~ Tunnels ~ 90 Piers and quays ~ 200

9 State owned engineering structures
Bridges ~ Tunnels ~ 90 Piers and quays ~ 200 Locks, canal structures ~ 40 locks

10 State owned engineering structures
Bridges ~ Tunnels ~ 90 Piers and quays ~ 200 Locks, canal structures ~ 40 locks Navigation marks and aids on waterways (non floating) ~

11 State owned engineering structures
Bridges ~ Tunnels ~ 90 Piers and quays ~ 200 Locks, canal structures ~ 40 locks Navigation marks and aids on waterways (non floating) ~ Noise walls

12 State owned engineering structures
Bridges ~ Tunnels ~ 90 Piers and quays ~ 200 Locks, canal structures ~ 40 locks Navigation marks and aids on waterways (non floating) ~ Noise walls Retaining walls

13 State owned engineering structures
Bridges ~ Tunnels ~ 90 Piers and quays ~ 200 Locks, canal structures ~ 40 locks Navigation marks and aids on waterways (non floating) ~ Noise walls Retaining walls Rock cuttings

14 State owned engineering structures
Bridges ~ Tunnels ~ 90 Piers and quays ~ 200 Locks, canal structures ~ 40 locks Navigation marks and aids on waterways (non floating) ~ Noise walls Retaining walls Rock cuttings Pile plates

15 State owned engineering structures
Bridges ~ Tunnels ~ 90 Piers and quays ~ 200 Locks, canal structures ~ 40 locks Navigation marks and aids on waterways (non floating) ~ Noise walls Retaining walls Rock cuttings Pile plates Culverts

16 State owned engineering structures
Bridges ~ Tunnels ~ 90 Piers and quays ~ 200 Locks, canal structures ~ 40 locks Navigation marks and aids on waterways (non floating) ~ Noise walls Retaining walls Rock cuttings Pile plates Culverts Railway station structures

17 State owned engineering structures
Bridges ~ Tunnels ~ 90 Piers and quays ~ 200 Locks, canal structures ~ 40 locks Navigation marks and aids on waterways (non floating) ~ Noise walls Retaining walls Rock cuttings Pile plates Culverts Railway station structures Stairways

18 How can we manage different structures?
Data model has to be generic and flexible User interface must be mainly shared for all structures Some structures require their own special data e.g. bridges, bridge type and bearing capacity information

19 Hierachical data model of engineering structures
Structure 1 (Bridge) Sub-structure Abutment 1 Pier 1 Foundation Column Cap beam Properties - Material - Dimensions - … Pier 2 Abutment 2 Super-structure Surface-structure Railings Environ-ment Structure 2 (Bridge) Main structure Structures Components / Structural parts

20 BIM-model integration
Design / Construction phase Combined / coordination model Uses native formats of design tools IFC LandXML Dwg Preparing the model for maintenance phase IFC ”TREX” Normalised / validated to FTA-standards

21 Use of the BIM-models in TREX-database
TREX interface for the IFC-transfer model TREX data storage Database data ”Conventional” text-based data Basic data of structures Property data etc Geometry data 2D coordinate data (point, line, area) 3D data of strutrural parts as triangular mesh Document management IFC-transfer file as it is

22 Benfits of BIM-model integration
Easier, partly automated data flow from design and construction data Visualisation of the data in 3D Using 3D-models to pinpoint damages in inspections

23 Thank you! Mika Stenmark mika.stenmark@fta.fi www.fta.fi


Download ppt "Management System of Engineering Structures"

Similar presentations


Ads by Google