Development of a cost prediction model for mass timber gravity frame construction
Construction materials like concrete and steel have been a primary choice for designers. As a result, the construction industry has become one of the biggest sources of greenhouse gas emissions. With increasing global population and climate change, resource scarcity and a need for healthy habitat is a likelihood. Therefore, to address these issues, green building movement escalated, and mass timber was looked upon as an alternative to offer a family of engineered wood products with comparable strength characteristics and desirable environmental benefits. Despite its benefits, designers are hesitant to adopt mass timber as a reliable alternative due to their lack of familiarity with the material which leads to uncertainty about costs and acts a barrier for adoption. This study attempts to break this link by investigating the cost implications of using mass timber gravity frame through the development of a cost prediction tool. This tool is envisioned to deliver costs to refer to compare mass timber as an alternative, thereby helping designers to make informed decisions for construction material at a conceptual stage of a project. This study initially developed regression equations using Principal Component Regression (PCR) and improvised to Partial Least Squares Regression (PLSR) to understand cost implications of selected variables and to develop a prediction tool to address the cost barrier. The researcher also believes that greater adoption will ultimately lead to sustainable forest management, reduced wildfires, and an economic base for rural regions.
Read
- In Collections
-
Electronic Theses & Dissertations
- Copyright Status
- In Copyright
- Material Type
-
Theses
- Authors
-
Nankar, Bhushan Rajendra
- Thesis Advisors
-
Berghorn, Dr. George
- Committee Members
-
Syal, Dr. Matt
Nejad, Dr. Mojgan
- Date
- 2020
- Subjects
-
Building, Wooden
Scheduled tribes in India--Economic aspects
Building materials
Decision making
Construction industry--Technological innovations
Building materials--Environmental aspects
- Program of Study
-
Construction Management - Master of Science
- Degree Level
-
Masters
- Language
-
English
- Pages
- xv, 140 pages
- ISBN
-
9798643180685
- Permalink
- https://doi.org/doi:10.25335/sdt9-7064