This is far from finished but here is what I have to date on my abstract outline. I know it is a bit jumbled but I will continue to revise and add to it as time goes on.
ABSTRACT OUTLINE
By researching different wall assemblies, is it possible to determine which type used in residential construction is best at preventing heat loss in a climate such as Kamloops? It is hard to tell at this point but hopefully this research will lead to a definite answer. However, exploring a topic such as this is a lot more difficult than just going to a table and looking up R-Values for various materials. There are many variables that should be considered before coming to a conclusion. Such variables could include providing restrictions as to how wide the wall can be. For example, a 4’-0” wide wall of straight insulation may be great in terms of thermal resistance, but is it really practical? Not only would this cost a fortune for an entire building to be constructed, but it would also be a great habitat for mould growth. As the research comes closer to a conclusion, there will be clear guidelines as to which types of walls are practical for this investigation, and which types aren’t.
By knowing which type of wall is going to provide the best thermal resistance, it will be simple to significantly reduce the amount of energy that is being used by residential homes in this modern day and age. This report is only going to examine the thermal resistances of varying wall assemblies in the local construction industry. Statistics show that an average of 35% of the heat lost in a home comes through the walls. Even if the research could reduce that number to 20%, homeowners would save bundles on their heat bills throughout each year. By designing green, there is a great opportunity to decrease the carbon footprint that is being caused by residential, commercial, and industrial buildings. The intention of sustainable design is to "eliminate negative environmental impact completely through skillful, sensitive design”. Although it may not be possible it entirely eliminate the negative impacts, everything that can be done to help reduce them should be considered. This research will hopefully serve as a stepping stone towards greener design in the future of the construction industry.
Saturday, March 27, 2010
Friday, March 26, 2010
DOUBLE STUD WALL
Today I decided to draw a double stud wall as an original graphic since many people do not know what one is. Take a look! The offset of the 2 x 4 studs helps reduce the amount of thermal breaks throughout a wall assembly. The only downside is an increase in cost, but you always get what you pay for!
Thursday, March 25, 2010
INFRARED HOUSE
Wednesday, March 24, 2010
STEEL THERMAL EFFICIENT PANEL
While researching materials and products available to help create a thermally efficient building envelope, I happened to stumble across a product called Steel Thermal Efficient Panels (S.T.E.P.'s). This innovative technology virtually eliminates the transfer of temperature from one side of the framing component to the other side. The result is a thermally efficient, high-performance building technology that is strong, lightweight, energy efficient and economical. As far as I know, it is state of the art and only available from a company called Accelerated Building Technologies. I don't know exactly how practical it would be to use this technology in residential construction but I plan on finding out. A video of this product and how it is made can be found at the following link: http://www.youtube.com/watch?v=qEqXFrxM1-E . Check it out!
Tuesday, March 23, 2010
LOOKING AHEAD
This post is just to serve purely as an update to my followers as to what they can expect from my research and my blog in the near future. First, my next post will likely contain which types of walls I plan on comparing in terms of thermal resistance. Hopefully I will have original graphics to go with them. Next, I plan on posting my abstract and more graphics. After that, I will most likely keep doing research up to the point of the Green Building Conference in Vancouver during the summer which I hope to attend. I hope that helps! I would also like to thank those who have given me input and commented on my blog. Your opinions are greatly appreciated!
Monday, March 15, 2010
THESIS
After much thought I believe I have finally found a thesis statement worth posting on my blog. I know it is not perfect, nor will it probably be the last attempt I make at a thesis for this applied research project. Well, here it goes:
"How can we determine which type of practical wall assembly used in residential construction is the best at preventing loss of heat in a climate such as Kamloops?"
It probably needs a little fine tuning so comments are welcome!
"How can we determine which type of practical wall assembly used in residential construction is the best at preventing loss of heat in a climate such as Kamloops?"
It probably needs a little fine tuning so comments are welcome!
Thursday, February 18, 2010
INSULATION TYPES
Recently I decided to conduct research on the different insulation types and summarize their advantages, disadvantages, and best applications. Here's what my references helped me conclude:
Fibreglass (Batt and Loose)
Advantages:
-Low cost per R
-Relatively non-flammable
-Resistant to moisture damage
-No setting
-Comes in most sizes and quantities
Disadvantages:
-Awful to handle
-Respiratory difficulties
Best Applications:
-Cavity walls
-Attic space
Fibreglass (Rigid)
Advantages:
-Light easy to handle
-Breathes, permitting vapour to pass through
-Resistant to moisture damage
-Relatively non-flammable
-Low cost per R
-Can be used as exterior sheathing
Disadvantages:
-Needs strapping for application to outside walls
-Compressible
Best Applications:
-Shutters
-Exterior walls
-Roofs
Cellulose
Advantages:
-Recycled materials
-Low cost per R
-Small particles blow into most cavities
-Resists air flow
-Not affected by normal water-vapour
Disadvantages:
-Absorbs heavy moisture
-Settles
-Possible fire problems is retardant not properly applied
Best Applications:
-Blow in existing cavities
-Attics
Urea Formaldehyde
Advantages:
-High initial R
-Low flammability
-Non-settling
-Fills cavity
Disadvantages:
-High vapour permeability
-Linear shrinkage leads to low R effectiveness
-Environmental problems; Formaldehyde can emit gas
Best Applications:
-Cavity walls
Expanded Polystyrene (Beadboard)
Advantages:
-Cheapest foam
-Breathes
-Easy to use
-Moisture resistant
Disadvantages:
-Low R Value
-Flammable
-Not a vapour barrier
-Degrades under exposure
Best Applications:
-Insulating exposed floors
-Ceilings
Extruded Polystyrene
Advantages:
-Waterproof
-Vapour barrier
-High R value
-Low outgassing
Disadvantages:
-U.V. degradation
-Flammable
-Costly
Best Applications:
-Exterior or interior of masonry walls and foundations
-Sheathing
-Under slabs
Urethane
Advantages:
-High initial R
-Applies on irregular surface
Disadvantages:
-Highly flammable
-Outgassing of fluorocarbons
-High cost
-Diminishing R value
Best Applications:
-Coolers, etc.
Vermiculite
Advantages:
-Fire Resistant
Disadvantages:
-Causes compression of other materials
-Absorbs moisture
-High cost
Best Applications:
-Attics
-Floors
Fibreglass (Batt and Loose)
Advantages:
-Low cost per R
-Relatively non-flammable
-Resistant to moisture damage
-No setting
-Comes in most sizes and quantities
Disadvantages:
-Awful to handle
-Respiratory difficulties
Best Applications:
-Cavity walls
-Attic space
Fibreglass (Rigid)
Advantages:
-Light easy to handle
-Breathes, permitting vapour to pass through
-Resistant to moisture damage
-Relatively non-flammable
-Low cost per R
-Can be used as exterior sheathing
Disadvantages:
-Needs strapping for application to outside walls
-Compressible
Best Applications:
-Shutters
-Exterior walls
-Roofs
Cellulose
Advantages:
-Recycled materials
-Low cost per R
-Small particles blow into most cavities
-Resists air flow
-Not affected by normal water-vapour
Disadvantages:
-Absorbs heavy moisture
-Settles
-Possible fire problems is retardant not properly applied
Best Applications:
-Blow in existing cavities
-Attics
Urea Formaldehyde
Advantages:
-High initial R
-Low flammability
-Non-settling
-Fills cavity
Disadvantages:
-High vapour permeability
-Linear shrinkage leads to low R effectiveness
-Environmental problems; Formaldehyde can emit gas
Best Applications:
-Cavity walls
Expanded Polystyrene (Beadboard)
Advantages:
-Cheapest foam
-Breathes
-Easy to use
-Moisture resistant
Disadvantages:
-Low R Value
-Flammable
-Not a vapour barrier
-Degrades under exposure
Best Applications:
-Insulating exposed floors
-Ceilings
Extruded Polystyrene
Advantages:
-Waterproof
-Vapour barrier
-High R value
-Low outgassing
Disadvantages:
-U.V. degradation
-Flammable
-Costly
Best Applications:
-Exterior or interior of masonry walls and foundations
-Sheathing
-Under slabs
Urethane
Advantages:
-High initial R
-Applies on irregular surface
Disadvantages:
-Highly flammable
-Outgassing of fluorocarbons
-High cost
-Diminishing R value
Best Applications:
-Coolers, etc.
Vermiculite
Advantages:
-Fire Resistant
Disadvantages:
-Causes compression of other materials
-Absorbs moisture
-High cost
Best Applications:
-Attics
-Floors
Thursday, February 11, 2010
GREEN DESIGN
Hello everyone,
I just wanted to make sure everyone is aware of the poll on the right side of my page. It is just to find out how much people value green design. Don't be afraid to vote, your answer is completely confidential!
I just wanted to make sure everyone is aware of the poll on the right side of my page. It is just to find out how much people value green design. Don't be afraid to vote, your answer is completely confidential!
Thursday, February 4, 2010
RESEARCH PROPOSAL
Proposal:
Summary statement of proposed research:
In this day and age there is a lot of research focusing on energy conservation. Nevertheless, we still need more. I was quite shocked to discover the lack of knowledge in our world towards modern day green buildings. Green buildings are structures that harm the environment as little as possible, using such strategies as passive solar energy, water recycling, local and natural construction materials, and renewable energy. By building green, we can all significantly reduce or eliminate the negative impact of buildings on the environment and on the building occupants. Since building green is such a colossal topic, I will try to focus on just one area of it. I would like to conduct my research on energy efficiency of different wall assemblies with the anticipation of finding the most “green” wall structure.
Purpose:
The purpose of my proposed research is to determine which type of practical and affordable wall assembly used in residential construction is the most efficient in preventing loss of heat. Obviously a 10’-0” wall of pure insulation would be the most efficient, but this wouldn’t be very practical. Also, if the insulation got wet, it would lose all its insulating properties and become an excellent habitat for mold growth. Therefore, I must be cautious in categorizing which assemblies are realistic and cost effective.
Goals and Objectives of the project:
Hopefully the research that is conducted will give a definite conclusion as to which wall assembly is the most efficient. Ideally, if my research is successful it will be brought forward to the public and be incorporated into residential construction techniques. If this were to happen, the energy savings around the world could be substantial. One of the main goals of any aspiring architect is to find methods to design in a more sustainable way. By doing this research, I will have started to make a contribution toward eliminating the negative impact of buildings on the environment. If everyone made a contribution towards a global goal such as living greener, we could be living in a much cleaner environment.
Methodology and analytical approach:
I will start my research by establishing the most common types of wall assemblies currently used in residential construction, and then I will research the advantages, disadvantages, and best applications of each wall assembly. Once that is complete, an in-depth analysis of insulation properties will need to be conducted. This will play a huge factor in determining which wall assembly is the most efficient. I plan on using my skills in AutoCAD to create original graphics of these wall assemblies which will be easily interpreted by anyone who wishes to read my research. I hope that I will also have the opportunity to do some of my own material testing if time, money, and resources permit me to do so. Interviews with local architects and engineers will provide me with unbiased information that I can use to help me determine the answer to my thesis. I also have the full intent of speaking with builders regarding the ease of construction of the various wall assemblies in order to find out how practical they are. All of the above information will help give me a better understanding in determining the conclusion to my report.
Previous Studies/Related Information:
Researchers have previously analyzed different wall assemblies in the attempt to determine their impact on the environment, including energy consumption. Currently there isn’t enough scientific evidence that points to one specific wall assembly as being substantially better than another. However, there are plenty of biased sources around that may lead you to believe certain types of walls are better than others. Well, this may not be true. I plan on thoroughly investigating the subject thoroughly and systematically to come up with a definite answer that researchers may have not yet determined.
Plans for dissemination of work:
(Note that attending all conferences at this point is not confirmed)
January 2010- Used for clarifying topic and determining thesis of research
February 2010- Begin research and online research blog
March 2010- Continue researching
April 2010- Attend USC Construction Management Symposium for Sustainability
May- Start putting research together into report format
June 2010- Attend Canada Green Building Council National Conference
July 2010-November 2010- Complete bulk of organizing data
December 2010-January 2011- Attend Green Building Conference, and conclude the remainder of the report
February 2011- Present my report at TRU Undergraduate Research Conference
Summary statement of proposed research:
In this day and age there is a lot of research focusing on energy conservation. Nevertheless, we still need more. I was quite shocked to discover the lack of knowledge in our world towards modern day green buildings. Green buildings are structures that harm the environment as little as possible, using such strategies as passive solar energy, water recycling, local and natural construction materials, and renewable energy. By building green, we can all significantly reduce or eliminate the negative impact of buildings on the environment and on the building occupants. Since building green is such a colossal topic, I will try to focus on just one area of it. I would like to conduct my research on energy efficiency of different wall assemblies with the anticipation of finding the most “green” wall structure.
Purpose:
The purpose of my proposed research is to determine which type of practical and affordable wall assembly used in residential construction is the most efficient in preventing loss of heat. Obviously a 10’-0” wall of pure insulation would be the most efficient, but this wouldn’t be very practical. Also, if the insulation got wet, it would lose all its insulating properties and become an excellent habitat for mold growth. Therefore, I must be cautious in categorizing which assemblies are realistic and cost effective.
Goals and Objectives of the project:
Hopefully the research that is conducted will give a definite conclusion as to which wall assembly is the most efficient. Ideally, if my research is successful it will be brought forward to the public and be incorporated into residential construction techniques. If this were to happen, the energy savings around the world could be substantial. One of the main goals of any aspiring architect is to find methods to design in a more sustainable way. By doing this research, I will have started to make a contribution toward eliminating the negative impact of buildings on the environment. If everyone made a contribution towards a global goal such as living greener, we could be living in a much cleaner environment.
Methodology and analytical approach:
I will start my research by establishing the most common types of wall assemblies currently used in residential construction, and then I will research the advantages, disadvantages, and best applications of each wall assembly. Once that is complete, an in-depth analysis of insulation properties will need to be conducted. This will play a huge factor in determining which wall assembly is the most efficient. I plan on using my skills in AutoCAD to create original graphics of these wall assemblies which will be easily interpreted by anyone who wishes to read my research. I hope that I will also have the opportunity to do some of my own material testing if time, money, and resources permit me to do so. Interviews with local architects and engineers will provide me with unbiased information that I can use to help me determine the answer to my thesis. I also have the full intent of speaking with builders regarding the ease of construction of the various wall assemblies in order to find out how practical they are. All of the above information will help give me a better understanding in determining the conclusion to my report.
Previous Studies/Related Information:
Researchers have previously analyzed different wall assemblies in the attempt to determine their impact on the environment, including energy consumption. Currently there isn’t enough scientific evidence that points to one specific wall assembly as being substantially better than another. However, there are plenty of biased sources around that may lead you to believe certain types of walls are better than others. Well, this may not be true. I plan on thoroughly investigating the subject thoroughly and systematically to come up with a definite answer that researchers may have not yet determined.
Plans for dissemination of work:
(Note that attending all conferences at this point is not confirmed)
January 2010- Used for clarifying topic and determining thesis of research
February 2010- Begin research and online research blog
March 2010- Continue researching
April 2010- Attend USC Construction Management Symposium for Sustainability
May- Start putting research together into report format
June 2010- Attend Canada Green Building Council National Conference
July 2010-November 2010- Complete bulk of organizing data
December 2010-January 2011- Attend Green Building Conference, and conclude the remainder of the report
February 2011- Present my report at TRU Undergraduate Research Conference
Wednesday, February 3, 2010
WELCOME!
Hello everyone, welcome to my blog! The purpose of my applied research project is going to be to determine which type of wall assembly is the most efficient in preventing loss of heat. Let me know what you think and there will soon be more details to follow, including the research proposal.
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