Publications
Proceedings pro014 : International Symposium on Integrated Life-Cycle Design of Materials and Structures (ILCDES 2000) Helsinki, Finland (2000)
Title: International Symposium on Integrated Life-Cycle Design of Materials and Structures (ILCDES 2000) Helsinki, Finland (2000) Edited by A. Sarja ISBN: 951-758-408-3 e-ISBN: 235158029X Pages: 550 Publication date: 2000 |
The design of materials and structures is a key factor in the development towards a sustainable building and civil engineering practice. We can claim, that a high life-cycle quality (including functionality, technical performance, economy, ecology, safety, health and aesthetics) can only be achieved through integrated life-cycle design.
The term "integrated" means the introduction of all requirements into design.
The term "life-cycle" means introduction of a time span over generations into all the calculations, evaluations and decisions.
Structural and material engineering is a profession where the scientific methods of mathematics and physics are effectively applied. In introducing the principles of life-cycle engineering into structural and materials design, the excellent tradition of scientific methods can be applied in praxis.
For this task we need include multiple calculation methods in which life-cycle principles are added to all viewpoints. Traditional economy is expanded into life-cycle monetary and environmental economy (ecology).
Controlled technical performance is expanded into life-cycle performance, including service life planning and optimization, durability design, optimal energy economy and design for recycling. Health, safety and comfort aspects are also related to design.
The magnitude of design aspects rise needs for development of decision-making procedure and related methods. We also have to rethink the entire design process. The methodology of integrated life-cycle design can be used in the design of individual buildings or other structural facilities, as well as in the development of new materials and structures or structural systems.
Contents
KEYNOTE LECTURES
Challenges of sustainable construction in the 21st century Author(s): C. Sjöström |
Pages: I - VIII |
lntegrated life design as a key tool for sustainable construction Author(s): A. Sarja |
Pages: 1 - 5 |
Service life planning in international standards and the Duracrete example Author(s): H. Davies |
Pages: 6 - 12 |
ISO Technical Committee 98: "Bases for design of structures" Author(s): A. M. Brandt |
Pages: 13 - 18 |
Session A: Design
Life cycle assessment of building elements from the broad perspective of planners design-considerations Author(s): C. Deilmann, K. Gruhler |
Pages: 20 - 25 |
Construction ecology and metabolism Author(s): C. J. Kiberf |
Pages: 26 - 30 |
Procurement protocols for sustainable urban development Author(s): M. Sunikka, P. Huovila, S. Curwell, V. Bentivegna |
Pages: 31 - 35 |
Evaluation of life cycle performance for functional building elements Author(s): M. Aygun |
Pages: 37 - 40 |
Environment-conscious life-cycle design of building structural composite materials, and 1 or components Author(s): T. Fukushima |
Pages: 41 - 45 |
Requirements management in life-cycle design Author(s): J. Leinonen, P. Huovila |
Pages: 46 - 59 |
Quality Function Deployment (QDF) in design process decision-making Author(s): J. Nieminen, P. Huovila |
Pages: 51 - 56 |
Development towards practical instructions of life cycle design in Finland Author(s): A. Sarja |
Pages: 57 - 62 |
Ecological aspects in design of temporary structures used for bridge construction Author(s): V. A. Seliverstov |
Pages: 63 - 67 |
Method for environmental design Author(s): J. Norén, J. E. Haggarsson |
Pages: 69 - 73 |
The service life design review and performance audit approach for sustainable construction Author(s): D. P. Wyatt |
Pages: 74 - 79 |
A service life design for lifecare management Author(s): D. P. Wyatt |
Pages: 80 - 85 |
Service Life Planning in International Standards and the Duracrete Example Author(s): H. Davies |
Pages: 87 - 93 |
Life cycle cost estimation of Japanese detached house Author(s): K. Endo, Y. Komatsu |
Pages: 94 - 98 |
lntegration of whole life costing with reliability in optimal management of bridge networks Author(s): D. M. Frangopol, E. S. Gharaibeh, J. S. Kong, M. Miyake |
Pages: 99 - 103 |
A model of life-cycle cost for project cost control Author(s): K. Guan, F. Wang, S. Zeng |
Pages: 104 - 107 |
Optimization of maintenance management for existing concrete bridges Author(s): A. Miyamoto, K. Kawamura, H. Nakamura |
Pages: 108 - 112 |
Whole life costing: an integrated approach Author(s): D. K. Rutter, D. P. Wyatt |
Pages: 113 - 116 |
Management of life-cycle costs and environmental impacts in building construction Author(s): A. Saari |
Pages: 117 - 128 |
Comparison between brick masonry and timber frame houses in terms of design service life and value decrease Author(s): A. Saari |
Pages: 129 - 133 |
Optimizing the environmental impact of dernountable building Author(s): P. Boedianto, J. C. Walraven |
Pages: 135 - 141 |
Reuse of wash water in production of fresh concrete through the use of chemical stabilizing systems Author(s): A. R. Chini, L. M. Muszynski, G. B. Wilder |
Pages: 142 - 148 |
Building materials for 'X' life times Author(s): B. J. H. Te Dorsthorst, A. L. A. Fraaij, CH. F. Hendriks |
Pages: 149 - 154 |
Design for an "Xth" life cycle Author(s): E. Durmisevic, J. Brouwer |
Pages: 155 - 160 |
Industrial flexible and dismantable (IFD) building technology: a key to sustainable construction Author(s): N. A. Hendriks, H. Vingerling |
Pages: 161 - 166 |
Decision support model for dismantling an existing building into reusable elements or components Author(s): T. Kowalczyk, J. Kristinsson, C. F. Hendriks |
Pages: 167 - 172 |
lntegrated strategy for energy efficient and waste preventing construction Author(s): E. Mlecnik |
Pages: 173 - 178 |
Inclusion of recycling in the assessment of buildings Author(s): C. Thormark |
Pages: 179 - 184 |
Mechanical-rheological properties of polymer-modified concrete based on recycled brick Author(s): K. Jankovic, M. Muravljov |
Pages: 185 - 189 |
The design and execution of used recycled PC-piles of the train cars inspection pit Author(s): S. Furuyama, Y. Sato |
Pages: 190 - 193 |
A study on air and water permeability of concrete using aggregate recycled from crushed concrete Author(s): I. Ujike |
Pages: 194 - 197 |
Optimum structural design of steel plane frame under the limited stocks of members Author(s): F. Yoshinobu, F. Daiji |
Pages: 198 - 202 |
Service life prediction and life cycle assessment at the data-decision interface Author(s): J-F. Le Téno, C. Sjoström |
Pages: 205 - 210 |
Software-agents: new possibilities in modeling structural systems Author(s): M. Schnellenbach-Held, B. Domer |
Pages: 211 - 216 |
Life cycle assessment of building products-a realistic model of useful life Author(s): G. Wörle, K. Sedlbauer |
Pages: 217 - 220 |
LCC-application for determining rent fairly Author(s): M. Hekkanen, A. Ruokolainen |
Pages: 221 - 224 |
On computer modelling of erection, maintenance and reconstruction of buildings Author(s): C. Jarsky |
Pages: 225 - 229 |
Building components service life modelling with qualitative simulation Author(s): J. Lair, J-F. Le Téno, D. Boissier |
Pages: 230 - 235 |
Computer aided environmental assessment for building systems Author(s): S. Vares, L. Vanhatalo, E. Holt |
Pages: 236 - 240 |
Optimal service life design and proactive roof maintenance effects on life cycle costing for low slope roof systems Author(s): T. W. Hutchinson |
Pages: 242 - 247 |
A life-cycle approach for quay walls Author(s): W. Kortlever |
Pages: 248 - 252 |
Performance-related specifications (PRS) for concrete bridge superstructures Author(s): J. P. Smith-Pardo, J. A. Ramirez |
Pages: 253 - 259 |
Development of open building system as sustainable urban element Author(s): T. Yashiro,, S. Okamoto, M. Matsuie, R. Tanaka |
Pages: 260 - 264 |
Earthquake safety assessment of proposed open building system with target service life of 200 years Author(s): S. Okamoto,, M. Ozaki,, M. Hayasi, T. Yasiro, K. Nakamura, M. Matuie, Y. Tanaka, J. Gu |
Pages: 265 - 270 |
Reliability analysis of corroded bridge columns Author(s): F. Carlsson, J. Jeppsson, S. Thelandersson |
Pages: 271 - 276 |
The improvement of traditional wooden windows being used in Istanbul Author(s): I Cetiner |
Pages: 277 - 281 |
The Applicability of Railway Embankment with Air-entrained Mortar for Life-cycle Design Author(s): H. Nagashima, T. Suzuki, H. Fujisawa, H. Takasaki |
Pages: 282 - 286 |
Life-cycle cost design methods and tools Author(s): S. Pulakka |
Pages: 287 - 291 |
Demountable connections in renaissance stone vaults: example of life-cycle design in the past Author(s): M. Simunic Bursic |
Pages: 292 - 296 |
Session B: Analysis and Modelling
Exergy and life assessment: a study of plaster products Author(s): G. Beccali, M. Cellura, C. Dispensa |
Pages: 298 - 302 |
Material and energy use for manufacturing components in building services. A case study of an old people home Author(s): M. Dahlblom |
Pages: 303 - 307 |
Environmental profiles of construction materials, components and buildings for the UK Author(s): J. Anderson, S. Edwards, P. Kapoor, I. Dickie |
Pages: 308 - 312 |
An investigation into the development of construction and demolition debris in Gaza strip Author(s): A. Enshassi, M. Trompers |
Pages: 313 - 318 |
Modelling the environmental impacts associated with the recycling of unplasticised Polyvinyl Chloride (PVCu) joinery profiles Author(s): L. Flanagan, A. J. Miller |
Pages: 319 - 323 |
Life cycle assessment of industrial and commercial buildings using a new steel Author(s): M. Gurung, M. Mahendran |
Pages: 324 - 328 |
Environmental assessment and environmental declarations of building services systems and products Author(s): T. Häkkinen, M. Nyman, K. Tattari |
Pages: 329 - 333 |
An assessment method for environmental impact of concrete Author(s): K. Kawai, E. Tazawa |
Pages: 334 - 339 |
Life cycle assessment of construction materials and building in Germany Author(s): H. W. Reinhardt, J. Kümmel |
Pages: 340 - 344 |
Whole building life cycle assessrnent Author(s): J. K. Meil, W. B. Trusty |
Pages: 345 - 349 |
Evaluation of stabilisedlsolidified industrial purification sludge and sewage sludge on long term leaching and environmental load Author(s): F. Felix, C. F. Hendriks, A. L. A. Fraaij |
Pages: 350 - 354 |
Ecological assessment of building designs existing methodologies and tools Author(s): A. J. Abu Sa'deh, P.G. Luscuere |
Pages: 355 - 359 |
Time to initiate a corrosion-induced crack after depassivation of the reinforcement Author(s): C. Gehlen, B. Banholzer |
Pages: 361 - 366 |
Service life modelling of stone and brick masonry walls subject to salt decay Author(s): E. Garavaglia, B. Lubelli, L. Binda |
Pages: 367 - 371 |
Recycling and reuse of building components in the housing sector; environmental potential, possibilities and conditions Author(s): K. Blaauw |
Pages: 372 - 376 |
A general framework for an integrated structural durability design procedure Author(s): M. Boulfiza, K. Sakai, H. Yoshida |
Pages: 377 - 381 |
Predicting the durability of recycled aggregates concrete Author(s): F. Buyle-Bodin, R. Hadjeva-Zaharieva |
Pages: 382 - 387 |
A computational method for performance evaluation of cementitious materials and structures under various environmental actions Author(s): T. lshida, K. Maekawa |
Pages: 388 - 392 |
Durability assessment of building products Author(s): J. Lair, J-F. Le Téno, D. Boissier |
Pages: 393 - 397 |
Durability prediction models for timber construction Author(s): J. Lair, J-F. Le Téno, D. Boissier |
Pages: 398 - 403 |
Deterioration of reinforced concrete structures and life cycle assessment Author(s): C. Q. Li, M. Cleven |
Pages: 404 - 408 |
Life cycle assessment of wood power poles Author(s): C. Q. Li |
Pages: 409 - 414 |
Long-term exposure of rendered autoclaved aerated concrete: measuring and testing programme Author(s): H. Kus, K. Nygren |
Pages: 415 - 420 |
Suitable repairing cycle of RC members based on probability approach Author(s): M. Matsushima, T. Iba, H. Seki |
Pages: 421 - 425 |
Corrosion models for structural design Author(s): P. Tanner, C. Andrade |
Pages: 426 - 430 |
Cornparison of service-life predicted for stainless steel and black steel reinforced concrete structures Author(s): L. Tula, P. Helene |
Pages: 431 - 435 |
Hygrothermal performance of building envelopes from environmental point of view Author(s): J. Tywoniak |
Pages: 436 - 440 |
Use of measured climatic data to estimate the micro environment at buildings Author(s): B. Eriksson, K. Westberg |
Pages: 441 - 446 |
Life-cyclic analysis of the corrosion protection provided by epoxy-coated reinforcing steel Author(s): R. E. Weyers, M. M. Sprinkel |
Pages: 447 - 452 |
Numerical modelling for predicting the degradation of cement-based materials due to calcium leaching Author(s): K. Yokozeki, Y. Furusawa, K. Watanabe, K. Koseki |
Pages: 453 - 457 |
Experimental and analytical approach to evaluation of residual performance of RC structures deteriorated by chloride attack Author(s): T. Shimomura, K. Maruyama |
Pages: 458 - 463 |
Analysis on moisture findings in residential buildings Author(s): U. Haverinen, E. Jaaskelainen, M. Vahteristo, T. Husman, A. Nevalainen |
Pages: 464 - 468 |
Mathematical modelling of serviceability of farm buildings Author(s): T. Keskküla, J. Miljan |
Pages: 469 - 472 |
Modeling for the fatigue process of bridge structures Author(s): K. M. Mahmoud |
Pages: 473 - 478 |
Simulation for time-dependent variation on durability and structural performance of RC structures under chlorideladen environment Author(s): T. Maruya, K. Hsu, H. Takeda, K. Uji, Y. Matsuoka |
Pages: 479 - 485 |
Durability of reinforced concrete structures in Estonian agricultural buildings Author(s): R. Miljan, J. Miljan, T. Keskküla |
Pages: 486 - 490 |
Service life with regard to chloride induced corrosion. A probabilistic approach Author(s): K. Pettersson, J. Norberg |
Pages: 491 - 496 |
Life-cycle performance prediction and durability design for urban tunnel structures Author(s): O. N. Pavlov, A. A. Shilin, M. N. Shuplik, A. M. Kirilenko |
Pages: 497 - 501 |
Ensuring the long-term durability of wooden façades Author(s): A. Soikkeli |
Pages: 502 - 506 |
Description of a database application for environmental performance evaluation implemented in existing IT-products - e.g. on the building market Author(s): M. Erlandsson |
Pages: 507 - 511 |
Environmental burden reduction in building life cycle Author(s): M. Iwata, Y. Hisamatsu, H. Dohnomae |
Pages: 512 - 516 |
A case study of the development of life cycle assessment as a management tool in a building industry organisation Author(s): K. Onabolu, T. Raman |
Pages: 517 - 521 |
Management of demolition waste-using life cycle assessment methodologies Author(s): M. Torring, K. Sandvik |
Pages: 522 - 526 |
Determination of steel structures reliability and durability on the basis of corrosion attacks models Author(s): Y. V. Gorokhov, V. P. Korolyov |
Pages: 527 - 533 |
Optimization of environmental construction impact of composite RC slabs Author(s): P. Hajek |
Pages: 534 - 539 |
Longevity life-cycle of prestressed concrete bridge damaged to salt attack Author(s): Y. Matsuda, H. Ueda, T. Tsuyoshi, T. lshibashi |
Pages: 540 - 544 |
The energy value of architectural construction Author(s): J. Petrovic |
Pages: 545 - 549 |