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Marie-Claire LeBlanc,
Environmental Professional
Insights
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04 Mar 2026All industriesRestoring together: a comprehensive approach to wetland and waterbody planning
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07 Mar 2019Power and RenewablesOptimize production ramp-up through operational readiness
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Nicolas Beauchamp, P.Eng.
Commissioning Manager, Operational Readiness and Commissioning
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28 Feb 2019Power and RenewablesBusiness analysis: an essential tool for successfully implementing your IT projects
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Julie Lessard
Senior Business Analyst, Operational Technology and Infrastructure
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25 Feb 2019Power and RenewablesStrategic asset management planning (SAMP) in major industrial electrical networks
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Pierre Girard, P.Eng.
National Practice Leader, Electrical
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22 Feb 2019Energy and chemical processesThe application of numerical modelling in efficiency-driven designs: ventilation problem
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Lyne Ricard, P.Eng.
Senior Consulting Expert, Advanced Fuels and Chemicals
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21 Feb 2019Power and RenewablesThe penstock manifold is the steel component in the pipeline that diverts flow at the powerhouse into several turbine units for hydropower projects. Due to the flow separation, turbulence is expected at each wye of the manifold, which will result in pressure drops / energy loss. Moreover, if the manifold is very close to the turbine unit, which is typically the case, the turbulent flow from the wye will also affect the turbine performance and thus, energy production. To accurately capture the flow performance at the wye, 3D numerical modeling is recommended, since the traditional manual calculation with the imperial data will not be detailed enough to capture the local turbulence (especially if there is a crotch plate inside the wye to separate the flow), and the physical modeling will be very expensive and time consuming for each design iteration.Optimizing the design of penstock manifold with 3D computational fluid dynamics (CFD) simulation -
21 Feb 2019Mining and MetalsHow to get rid of errors in your drilling database in 25 questions
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19 Dec 2018Mining and MetalsEverything you need to know about atmospheric modelling
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David Giard, P.Eng., M.Sc.
Senior Engineer, Environmental Engineering
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18 Dec 2018Power and RenewablesWind farms: noise challenges
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12 Dec 2018Power and RenewablesAddressing pressure loss and oil leakage in Kaplan turbines and the impact on efficiency
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François St-Germain, P.Eng.
Principal Engineer, Industrial and Hydro
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03 Dec 2018Power and RenewablesWith today’s technology, processing geographic information has been turned on its head since the mapping production process has become entirely automated. Geographic information on a digital map is translated into points, lines or polygons that have related descriptive databases that in turn provide additional information about each element.Geomatics and surveying: essential engineering tools-
Marie-France Proulx, P.Eng., M.A.Sc., P.M.P.
Senior Engineer, Earth and Infrastructure
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28 Nov 2018Mining and MetalsUsing speed variation for pumps
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Roman Dorfman, P.Eng.
Principal Engineer, Piping
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27 Nov 2018Power and RenewablesBudgeting tips for engineering project management
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Marie Chiasson, P.Eng.
Practice Leader, Engineering Management
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02 Nov 2018Mining and MetalsThe use of 3D models and analysis in support of waste stockpile design and operations
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02 Nov 2018Mining and MetalsPractical nomograms for waste rock piles design on competent foundations
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02 Nov 2018Mining and MetalsMine waste rock storage facilities design, construction and operation as engineered structures -
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02 Nov 2018Mining and MetalsAssessment of design and operating practices on the risks associated with waste rock stockpiles
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02 Nov 2018Mining and MetalsGuidance for the safe and optimized operation of waste rocks facilities
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23 Oct 2018Power and RenewablesUnderstanding, quantifying and correcting noise sources
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06 Jul 2018Power and RenewablesControl system performance: Which figures should be considered?
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Michel Ruel, P.Eng.
Expert, Process Control
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06 Jul 2018Power and RenewablesArc flashes occur frequently in electrical installations.Everything you need to know about arc-flash hazard analyses-
Joel Sourceaux, P.Eng.
Principal Engineer, Electrical - Power Systems, Protection and Control
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06 Jul 2018Power and RenewablesCommissioning and maintenance of electrical distribution equipment: which approach to adopt
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Dominic Dubreuil, P.Eng.
Electrical Engineer
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05 Jul 2018Mining and MetalsImplementing an industrial mining project: noise challenges
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05 Jul 2018Power and RenewablesPower grid protection... don't wing it!
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Rémi Hallé, P.Eng.
Senior Engineer, Electrical - Power Systems, Protection and Control
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05 Jul 2018Power and RenewablesWorkforce challenges in industrial electrical facilities
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Pierre Girard, P.Eng.
National Practice Leader, Electrical
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05 Jul 2018Power and RenewablesDoing things right, the first time The equipment and systems testing process described in this article is based on many examples from the last 40 years where BBA had to intervene following in-production failures because factory acceptance tests (FATs) were not carried out properly or commissioning tests were omitted. In-production equipment failures are a nightmare for plant managers. Though they cannot be entirely eliminated, these failures can be drastically reduced by following simple steps before the equipment is in production. These steps, described below, are interrelated and should all be performed in their entirety for optimal results.BBA's equipment and systems testing process-
Pierre Girard, P.Eng.
National Practice Leader, Electrical
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17 May 2018Energy and chemical processesMajor incidents: corrective actions for "never again!"
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Lyne Ricard, P.Eng.
Senior Consulting Expert, Advanced Fuels and Chemicals
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06 May 2018Power and RenewablesIndustry 4.0 or a new wave in an industrial environment
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Michel Ruel, P.Eng.
Expert, Process Control
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04 May 2018Power and RenewablesPower generating stations: a wealth of opportunity
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11 Jan 2018Power and RenewablesInterconnection: 3 things renewable developers should know
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05 Dec 2017Power and RenewablesToday, rigorous witnessing of factory acceptance tests (FATs) performed by an expert who is directly involved in the project engineering process is proving to be key when carrying out detailed engineering projects. On the one hand, it prevents disruptions when completing an engineering project and, on the other hand, minimizes the risk of undue delays during plant commissioning and start-up. It also prevents significant production losses in case critical equipment is unexpectedly damaged in the initial years of operation.The benefits of witnessing electrical factory acceptance tests (FATS)-
Maurice Brisson, P.Eng., M.A.Sc.
Senior Consulting Expert, Power System Planning
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