San Francisco Public Utilities Commission's Water System Improvement Program, Bay Division Pipelines 3 & 4 Crossovers Facilities Project, New Construction Methods and Focused Coordination Resulting in a Successful Project

2013 ◽  
Author(s):  
LuAnn McVicker ◽  
Johanna Wong ◽  
Bryan Dessaure ◽  
Bill Princeton Wong ◽  
Heather Manders ◽  
...  
2021 ◽  
pp. 117-131
Author(s):  
Olof Johansson ◽  
Helene Ärlestig

AbstractThis chapter explores the “theory of action” underlying the Swedish government’s national school improvement program called Cooperation for Better Schools. We discuss particularly the assumptions about the roles and responsibilities of key stakeholders, including schools, school districts, and universities. Our analysis focuses on the issue of institutional capacity for sustained system improvement. In this regard, our approach draws on the perspectives associated with contemporary policy analysis, which includes greater attention to qualitative and interpretive methods to understand the complexity of policy-induced change in contemporary society. We start by describing the project structure and our method. Thereafter, we analyze the government’s understanding and arguments for why it is important to help underperforming schools, before we give examples about how involved actors define problems and solutions in project documents. In the conclusion, we highlight strengths and deficits in the improvement process.


2021 ◽  
pp. 1-14
Author(s):  
Yifan Zhao ◽  
Kai Li

In the recent years, several new construction methods of fuzzy implications have been proposed. However, these construction methods actually care about that the new implication could preserve more properties. In this paper, we introduce a new method for constructing fuzzy implications based on an aggregation function with F (1,  0) =1, a fuzzy implication I and a non-decreasing function φ, called FIφ-construction. Specifically, some logical properties of fuzzy implications preserved by this construction are studied. Moreover, it is studied how to use the FIφ-construction to produce a new implication satisfying a specific property. Furthermore, we produce two new subclasses of fuzzy implications such as UIφ-implications and GpIφ-implications by this method and discuss some additional properties. Finally, we provide a way to generate fuzzy subsethood measures by means of FIφ-implications.


2014 ◽  
Vol 2014 (2) ◽  
pp. 1-16
Author(s):  
M. M Abu-Orf ◽  
C.T. Goss ◽  
E. Casares ◽  
M. Fong ◽  
B.M. Jones ◽  
...  

Author(s):  
Jerry M. Hopwood ◽  
Ian J. W. Love ◽  
Medhat Elgohary ◽  
Neville Fairclough

Atomic Energy of Canada Ltd. (AECL) has very successful experience in implementing new construction methods at the Qinshan (Phase III) twin unit CANDU 6 plant in China. This paper examines the construction method that must be implemented during the conceptual design phase of a project if short construction schedules are to be met. A project schedule of 48 months has been developed for the nth unit of NG (Next Generation) CANDU with a 42 month construction period from 1st Concrete to In-Service. An overall construction strategy has been developed involving paralleling project activities that are normally conducted in series. Many parts of the plant will be fabricated as modules and be installed using heavy lift cranes. The Reactor Building (RB), being on the critical path, has been the focus of considerable assessment, looking at alternative ways of applying the construction strategy to this building. A construction method has been chosen which will result in excess of 80% of internal work being completed as modules or as very streamlined traditional construction. This method is being further evaluated as the detailed layout proceeds. Other areas of the plant have been integrated into the schedule and new construction methods are being applied to these so that further modularization and even greater paralleling of activities will be achieved. It is concluded that the optimized construction method is a requirement, which must be implemented through all phases of design to make a 42 month construction schedule a reality. If the construction methods are appropriately chosen, the schedule reductions achieved will make nuclear more competitive.


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