It is important to move around throughout the day to meet those fitness goals, reduce stress, and get our creative juices flowing. Living through your average Montreal winter does not make it easy. Once we arrive at our destination it is easy to rationalize staying put for as along as possible.
To help make moving around a little easier, we have installed a treadmill desk at Schulich Library. It is up on the group study floor so that the little noise it makes will not be an issue. The height of the desk portion is adjustable and the speed can be set up to 4 mph. While you can’t get a full on run on the treadmill, you can get a nice brisk walk going and get your heart rate up.
I know it is a little unusual but don’t be shy about getting on the treadmill and setting up your work on the desk. Seeing you there will help others feel more comfortable about walking while working. Also, if you get the chance, please fill out our short survey after your walk and give us your feedback.
Christian Barker is the winner of the Communication in Engineering-Writing Recognition Award for the 2016 Winter and Summer semesters. The award comes with a $500 prize from the Faculty of Engineering.
Title: The Feasibility of Fibre Reinforced Polymers as an Alternative to Steel in Reinforced Concrete
Abstract: The corrosiveness of steel compromises the structural integrity of reinforced concrete (RC) structures and costs the infrastructure industry billions of dollars every year. In response to this, engineers have developed fibre reinforced polymers (FRPs) – non-metallic composite materials of superior strength to be used in place of steel. The three most commonly used FRPs in construction are carbon, glass, and aramid. This paper discusses the feasibility of each FRP as an alternative to steel in RC structures by comparing their mechanical properties, sustainable merits, and costs. Research reveals that while glass FRP is most sustainable, its poor strength and durability render it unusable for most RC applications. Aramid FRP’s strength and durability fell short of carbon’s and it is most expensive. Carbon FRP demonstrates the highest strength, greatest durability, and lowest final costs making it the most feasible FRP to replace steel in RC. Recommendations for future implementation include establishing building codes, improving recyclability and lowering initial costs.
The full text of the paper can be downloaded from the record in eScolarship@McGill, McGill’s institutional repository.
Congratulations to Christian Barker on a well deserved award!