Internship Prep with Emera's Talent Acquisition Team

 Trainees and presenters in front of the Emera IDEA building (l-r: Aidan Van Heyst, Nicole Bell, David Foster, Baillie Holmes, Stephanie Coady (Emera), Caitlin McCavour, Mary Jenkins (Emera), Mike Hamilton, and Heather McGuire).

Trainees and presenters in front of the Emera IDEA building (l-r: Aidan Van Heyst, Nicole Bell, David Foster, Baillie Holmes, Stephanie Coady (Emera), Caitlin McCavour, Mary Jenkins (Emera), Mike Hamilton, and Heather McGuire).

Some of the core values of the ASPIRE program were reflected in this week’s seminar: partnership with industry and encouragement of professionalism in our trainees. The new Emera IDEA building on Sexton campus stands on a foundation of partnership between academics and industry, so it was a perfect place to host Mary Jenkins and Stephanie Coady from Emera’s Talent Acquisition team. With more than 30 combined years of experience, they had lots of knowledge to share with our trainees about standing out among other candidates for jobs. They discussed some significant numbers for the trainees to remember:

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40 seconds

On average, a recruiter spends 40 seconds reviewing a resume and cover letter. Mary shared tips for building different types of resumes and making a positive impression in those 40 seconds. We saw good and bad examples of resumes and talked about resume etiquette (“there’s a place and time for central alignment in a document, but your resume is not it”).

7 seconds

An interviewer forms a first impression of a candidate within 7 seconds. Arriving to an interview early, well-dressed, and composed makes a huge difference.

30 seconds

A classic interview question is “tell me about yourself”, and an appropriate answer to that question is about 30 seconds long. The three things that should be covered in that 30 second “elevator pitch” are your background, your career goals, and how the company you’re interested aligns with those career goals. Trainees were given some time to reflect and come up with their 6-8 strong points and then some chose to share their pitches with the group.

30 days

Stephanie told us that according to the research, the first 30 days in a job establishes your trajectory for the rest of your time in that position. Since all of the ASPIRE trainees will be doing 4-9 month internships in industry, it will be important for trainees to maximize those first 30 days. Trainees were encouraged to ask questions, show initiative, ask more questions, request feedback, keep track of the work they will be doing and the things they learn, and set goals.

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The seminar was engaging and there were lots of questions from the trainees and discussions flowing from those questions.

The industrial internship is part of our core commitment to NSERC. The wisdom shared with us this week will help our trainees to succeed when they are hosted by one of our industrial partners later in their graduate studies. We look forward to continuing to partner with industry in our region for informational sessions, networking events, and internships.

Road salts and our environment

It's hard to think of icy roads when here in Halifax we have recently been under a heat warning, but this week we had a speaker visit us at the Centre for Water Resources Studies who reminded us that seasonal human activities can impact aquatic environments all year long.

 Rock salt on an icy sidewalk, February 2015

Rock salt on an icy sidewalk, February 2015

To shed some light on this issue, ASPIRE investigator Dr. Barret Kurylyk invited Dr. Claire Oswald from Ryerson University to speak about "Fate and transport of road salt chloride in urbanizing watersheds".  Dr. Oswald discussed that the use of road salts (NaCl) in the wintertime to maintain safe, ice-free surfaces can have serious biological and physical impacts on nearby surface waters. Elevated chloride levels can disrupt the normal pattern of aquatic microorganisms and also create a density gradient that can prevent lake turnover. We might expect chloride concentrations to be high in the winter (during the salting season) and spring thaw, but what Dr. Oswald and a number of other researchers in the last few decades have discovered is that chloride can still be elevated above background levels in lakes and streams into the summer and even fall. This is called chloride retention.

 Dr. Oswald and Dr. Kurylyk after the talk on August 29, 2018.  Photo from Paula Zwicker.

Dr. Oswald and Dr. Kurylyk after the talk on August 29, 2018. Photo from Paula Zwicker.

Dr. Oswald and her multidisciplinary team looked at historical data from several watersheds in Southern Ontario to determine inputs, outputs, and storage (retention) of chloride. These watersheds represented a variety of land uses and could be categorized as urban, urbanizing, and non-urban. The results indicated that rural and urbanizing watersheds retained more salt than urban watersheds, possibly due to storm drains and stormwater conveyance. Essentially, these results prompted an adjustment of the simple mass balance (Retention = In - Out) to include more "ins and outs" and account for things like subsurface flow in the unsaturated zone and storage and export from stormwater retention ponds.

Dr. Oswald and her multidisciplinary team looked at historical data from several watersheds in Southern Ontario to determine inputs, outputs, and storage (retention) of chloride. These watersheds represented a variety of land uses and could be categorized as urban, urbanizing, and non-urban. The results indicated that rural and urbanizing watersheds retained more salt than urban watersheds, possibly due to storm drains and stormwater conveyance. Essentially, these results prompted an adjustment of the simple mass balance (Retention = In - Out) to include more "ins and outs" and account for things like subsurface flow in the unsaturated zone and storage and export from stormwater retention ponds.

 Road salt on concrete.  Photo from:  https://www.ryerson.ca/water/research/claire-oswald/

Road salt on concrete. Photo from: https://www.ryerson.ca/water/research/claire-oswald/

Salt use data are widely available for provincial and municipal roadways, which can help to estimate the total salt load in a watershed. However, the biggest question mark in this area of research is private road salt application, which is not regulated in the same way that provincial and municipal governments regulate their roads. Think of the crunch of rock salt under your boots as you walk through your local box store parking lot - these applications are not included in the government data. This makes it difficult for researchers to model chloride impacts on lakes and rivers. More work is needed in this area in order to optimize winter safety on our roadways and protection of aquatic environments and species.

First group of ASPIRE trainees

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The ASPIRE community is pleased to announce the first group of trainees for the 2018-2019 school year. We look forward to years of training and research excellence in our aquatic environments! Welcome to the team:

Nicole Bell, Masters Candidate
Proposed research: Establishing Baseline Hydrologic Conditions in Nova Scotia Wetlands

David Foster, PhD Candidate
Proposed research: Modeling the Impacts of Forest Management and Climate Change on Forested Drinking Water Supply Watersheds

Mike Hamilton, Masters Candidate
Proposed research: Analysis of High Resolution Site Characterization techniques by use of Risk-based assessment

Baillie Holmes, Masters Candidate
Proposed research: Using Applied Paleolimnological Assessment to Determine Contaminant Sources and Pathways in a Water Supply Reservoir

Jason KarisAllen, Masters Candidate
Ecohydrological monitoring and restoration in the Basin Head estuary, Prince Edward Island

Caitlin McCavour, Masters Candidate
Catchment liming in Eastern Nova Scotia to promote restoration of soils and forest ecosystems

Heather McGuire, Masters Candidate
Understanding lake recovery processes within source water lakes in Atlantic Canada

Aidan Van Heyst, Masters Candidate
Characterizing the Baseline Hydrologic Regime of Wetland Ecosystems in the Boat Harbour Watershed