Engineering Consulting & Advisory
Based in Vancouver, BC, Northshore Smart Grid Consultants delivers expert electrical engineering services to utilities, independent power producers, data centres, mining operations, and industrial facilities across North America.
Grounding design and audit services for substations from 60 kV to 500 kV, using WinIGS and SES-CDEGS. Field audits performed with Smart Grid Multimeter (SGM) in compliance with IEEE Std 80 and 81.
Assessment of electromagnetic coupling between power lines and nearby pipelines, railways, and metallic infrastructure under steady-state and fault conditions, per IEEE, CSA, and NACE standards using SES-CDEGS.
Dynamic modeling, generator interconnection, NERC reliability compliance, stability analysis, renewable integration, disturbance investigations, and protection studies for utility-scale generation and grid assets.
Complete physical and electrical design for transmission and distribution substations from 25 kV to 500 kV, including layout, grounding, cable systems, auxiliary power, and construction engineering support.
Comprehensive electrical studies for high-voltage transmission line design, including lightning performance, structure grounding, EMF, insulation coordination, corona analysis, radio interference, and transposition studies in compliance with IEEE, IEC, and CSA standards.
Design including resource planning, development of day-ahead to close-to-real-time algorithms, software validation, and Owner's Engineer services to review designs of microgrids and VPPs.
Energy management and dispatch algorithm design spanning day-ahead through close-to-real-time horizons, simulation-based validation of control logic and islanding behaviour, and independent Owner's Engineer oversight to ensure technical rigour and alignment with project objectives.
Founded in Vancouver, Northshore Smart Grid Consultants Ltd has grown over 6 years from a small power systems consulting practice into a British Columbia's team of four Principal Electrical Engineers. It benefits from expertise of the field test team who is led by Joel Duplessis with 35 years of experience at BC Hydro Apparatus Testing team for complex measurements.
Our study team are licensed professional engineers with doctorate degree from either Germany or Canada. Our substation design team benefits from two Principal Electrical Engineers with over 100 design projects both for brownfield and greenfield stations from 60 kV to 500 kV delivered to utility companies.
Every recommendation we make is grounded in rigorous engineering analysis, not vendor relationships or commercial incentives.
We embed with client teams, share knowledge openly, and leave organisations with stronger internal capacity than when we arrived.
Dr. Abbasi brings 22 years of specialized expertise in power system modelling, renewable energy integration, and T&D engineering. He holds Master's and doctoral degrees focused on short-term operational planning and transient analysis of power systems with high renewable penetration.
He has co-authored over 20 peer-reviewed publications in IEEE and CIGRE journals and conferences, and is the recipient of the IEEE Journal of Emerging and Selected Topics in Power Electronics First Prize Paper Award (2015). He has contributed to CIGRE Task Force C6.04.02 on benchmark systems for renewable and distributed energy integration.
With over 11 years of hands-on North American project experience, his practice encompasses substation electrical design, grounding studies for facilities ranging from 60 kV to 500 kV, and AC interference assessments for transmission corridors. He is a registered Professional Engineer with EGBC and a participant in the EGBC PPMP program.
Independent technical review of power systems studies on behalf of project owners, ensuring accuracy, completeness, and compliance with applicable standards and grid codes.
Complete design services for transmission and distribution substations, including both greenfield developments and brownfield expansions.
Development of optimized station layouts, equipment arrangements, bus configurations, clearances, and constructible installation details.
Design and analysis of grounding grids, step-and-touch potential mitigation, lightning protection systems, and compliance with utility and industry standards.
Design of cable trenches, duct banks, direct-buried cable systems, conduit routing, cable tray systems, and station underground infrastructure.
AC and DC station service design, control building and e-house power distribution, battery systems, and auxiliary equipment integration.
Preparation of detailed construction drawings, equipment installation details, grounding and conduit layouts, material specifications, and engineering support during construction and commissioning.
Development of technical specifications and engineering requirements for power transformers, circuit breakers, disconnect switches, instrument transformers, surge arresters, reactive compensation equipment, and other high-voltage substation assets, including technical bid evaluations, vendor drawing reviews, and equipment interface coordination.
Independent technical review of substation designs on behalf of project owners, ensuring engineering quality, code compliance, constructability, and alignment with project requirements.
Modelling of transmission lines in commercial software (e.g., SES-Shield3D) based on IEEE Std 998, 1410, 1243, and IEC 62305. Determines optimal shield wire placement, expected shielding failure rates, and back-flashover rates based on tower grounding resistances and ground flash density. Results guide whether to prioritize line shielding or tower grounding improvements.
Assessment of structure footing resistance and supplementary grounding requirements, particularly for mountainous terrain and bedrock installations. Based on IEEE Std 80 (calculations) and IEEE Std 81 (field measurements). Identifies structures with deficient grounding and prioritizes them for inspection or improvement.
Assessment of electric and magnetic field levels within and outside the powerline right-of-way, ensuring compliance with IEEE C95.6 for public exposure limits. Includes comprehensive literature review suitable for public consultation requirements.
Analysis of electrostatic induction at road crossings and parking lots in accordance with CSA C22.3 No. 1. Ensures body current is limited to 5 mA (or more stringent client-specified limits), determining minimum required vertical clearances.
Study of radio interference and audible noise generated by transmission lines, ensuring compliance with Industry Canada limits and applicable municipal noise regulations. Results inform minimum conductor sizing requirements to meet industry standards.
Quantification of expected corona losses and resistive losses to feed into conductor selection and optimization. Results inform economic trade-offs between conductor size, losses, and capital cost over the project lifecycle.
Determination of the number, location, and configuration of transpositions required to meet voltage unbalance requirements at terminal stations. Optimal phasing is assessed to minimize interference with pipelines and railways, reduce electric field intensity, and lower required vertical clearances for large vehicles.
Determination of switching surge levels using Electromagnetic Transient Programs (e.g., EMTP-RV), including frequency-dependent line models and station equipment. Study covers surge arresters, circuit breakers, transformers, shunt reactors, and capacitive voltage dividers. Identifies appropriate dead-time for single-pole reclosing and external mitigation measures where required. Results define required structure clearances and insulator string lengths.
Independent technical review of AC interference studies on behalf of project owners, verifying methodology, modelling accuracy, standard compliance, and adequacy of proposed mitigation measures.
Independent technical review of grounding studies and field test reports on behalf of project owners, verifying design methodology, IEEE standard compliance, and adequacy of safety and performance assessments.
Electricity market and power systems analyses to establish the structure of a VPP and optimize resource planning based on project-specific needs.
Design of scheduling and dispatch algorithms spanning day-ahead through close-to-real-time horizons, enabling reliable and optimized VPP operation.
High-level studies to validate VPP performance, control logic, and system behaviour against design requirements and operational targets.
Independent Owner's Engineer oversight of VPP design and control algorithms, ensuring technical rigour, compliance, and alignment with project objectives.
E. Abbasi, "Coordinated Primary Control Reserve by Flexible Demand and Wind Farms through Ancillary Service Centered Virtual Power Plants," International Transactions on Electrical Energy Systems, October 2017.
View Full Publication List ↗Design of energy management and dispatch algorithms spanning day-ahead through close-to-real-time horizons, enabling reliable, resilient, and optimized microgrid operation.
High-level simulation studies to validate microgrid performance, control logic, and islanding behaviour against design requirements and operational targets.
Independent Owner's Engineer oversight of microgrid design and control algorithms, ensuring technical rigour, compliance, and alignment with project objectives.
K. Strunz, E. Abbasi, N. H. Duc, "DC Microgrid for Wind and Solar Power Integration," IEEE Journal of Emerging and Selected Topics in Power Electronics, vol. 2, no. 1, pp. 115–126, Mar. 2014. (First Prize Paper Award, 2015; 350+ citations.)
View Full Publication List ↗