Technical Competencies in the CBA | Sample Examples

 

What are Technical Competencies in the PEng CBA?

Technical competencies within the PEng Technical Competencies framework represent the cornerstone of an engineer’s professional expertise. These competencies ensure that applicants possess the technical knowledge, practical skills, and problem-solving abilities necessary to address the complex challenges of engineering practice.

Engineering regulators such as PEO define technical competencies as those skills that enable engineers to design, analyze, and implement solutions that are safe, reliable, and aligned with industry standards. Beyond individual expertise, these competencies also reflect an applicant’s ability to work within the unique context of Canadian regulations, codes, and practices. Whether it involves adhering to safety protocols, managing technical risks, or maintaining quality control, the emphasis is on ensuring public safety and engineering excellence.

Mastering the technical competencies is a key step toward demonstrating readiness for independent practice. From demonstrating knowledge of materials and project constraints to transferring design intentions into clear documentation, these competencies span the entire engineering lifecycle. In the next section, we’ll explore each of the 10 technical competencies in detail, including tips on how to effectively present your experience for the PEng CBA evaluation.

 

 

Breakdown of the 10 Technical Competencies

The PEng Technical competencies in Competency Based Assessment (CBA) requires applicants to demonstrate proficiency across 10 distinct technical competencies. Each competency reflects critical aspects of engineering practice and ensures that applicants are ready to handle complex projects independently. Below is an overview of these competencies and their significance.

For how the ratings work, see how the CBA scoring scale works.

 

1.1 Regulations, Codes & Standards: Knowledge of Canadian Regulations, Codes, and Standards

Understanding and applying Canadian engineering regulations, codes, and standards are fundamental to ensuring compliance and public safety in the first item in technical competencies. Applicants must demonstrate their ability to identify and integrate these requirements into their engineering projects. Applicants must demonstrate familiarity with Canadian engineering regulations, including provincial, territorial, and indigenous codes and standards. This includes an understanding of local engineering practices and the ability to ensure compliance with legal and regulatory requirements. This matters as ensuring compliance with these frameworks is critical for maintaining public safety, meeting legal obligations, and delivering reliable engineering solutions.

For example, an applicant designing a bridge in Ontario might highlight how they applied the Canadian Highway Bridge Design Code (CSA S6), accounted for provincial environmental standards, and ensured alignment with Indigenous guidelines to meet regional requirements.

 

Illustrative sample (electrical engineering)

Situation

I was responsible for determining whether a temporary substation would be suitable for a construction site and for designing exterior lighting upgrades for existing buildings. The work had to meet the Canadian Electrical Code and the applicable CSA and IEEE standards.

 

Action

I prepared the concept design report with options to improve lighting in the parking lot and walkways. Once my supervisor approved the final concept, I was responsible for the detailed design:

• I ran lighting simulation calculations to set pole locations, heights and light output levels to IES recommended practice.
• I calculated the pole and concrete base sizes needed to withstand wind and snow loads.
• Using CSA C22.1 (Canadian Electrical Code, Part I), I sized the conductors and conduit. During construction I checked that the trenches met the minimum cover in Rule 12-012 and Table 53; where they could not be dug to full depth, I issued a site instruction for mechanical protection so the reduced cover still complied.
• I specified and sized the circuit breakers and calculated voltage drop.
• I prepared the drawings and specifications for the tender documents.
• I reviewed the customer’s substation drawings against CEC Section 36 (high-voltage installations) and the utility’s interconnection standards.

 

Outcome

My studies confirmed the substation was safe for the site and the nearby public spaces. I set the ground fault protection and tested it to the limits in the Canadian Electrical Code, and the client accepted the lighting upgrades on the existing buildings.

 

1.2 Project & Design Constraints: Knowledge of Materials, Operations, and Constraints

This is the second item of technical competencies that focuses on selecting appropriate materials and operations while addressing design constraints like cost, time, and labor. It also evaluates the applicant’s ability to manage interdisciplinary impacts effectively. This matters as engineering solutions must not only be functional but also economically and operationally feasible. For instance, a candidate designing a wastewater treatment plant could showcase their decision-making process in selecting corrosion-resistant materials while balancing project budget constraints and coordinating with environmental engineers.

 

Illustrative sample (electrical engineering)

Situation

A client needed its exterior lighting upgraded and wanted to know whether a large solar installation could use its existing utility distribution connection. I was responsible for the lighting design and for the solar feasibility study.

 

Action

• I met the client’s project manager to confirm the scope, inventoried the existing exterior lighting and measured the light level in each area at night. I presented the results to the client with several upgrade options.
• I prepared the tender package: sizing and material requirements for light standards and concrete bases, accepted luminaires and performance requirements, wireless controls, commissioning, installation, project management and safety requirements.
• For the solar study, I evaluated the existing distribution lines, the distance to the utility substation, the X/R ratio, the land classification and construction cost estimates for the connection impact assessment.

 

Outcome

My feasibility report showed the solar installation could use the existing utility distribution assets, and it was later built. The lighting upgrades were completed, improving safety around the buildings, and the client accepted the work.

 

1.3 Risk Identification & Mitigation: Risk Analysis and Mitigation

Risk analysis and mitigation are fundamental competencies that showcase an engineer’s ability to foresee potential technical risks and implement strategies to address them effectively. In the Technical competencies in PEng Competency Based Assessment (CBA), this competency emphasizes the importance of identifying areas of vulnerability in engineering projects, assessing their potential impacts, and applying solutions to reduce or eliminate risks. Effective risk management is essential because engineering projects often involve significant complexities and unknowns. By proactively identifying risks, engineers can prevent costly delays, safeguard the public, and ensure project success.

For example, an engineer working on a dam project might detail their approach to assessing seismic risks in the region. This could involve analyzing geological data, consulting with structural experts, and developing contingency plans for various scenarios. To mitigate these risks, the engineer could design structural reinforcements, incorporate fail-safe systems, and establish monitoring mechanisms for early detection of potential issues.

 

Illustrative sample (electrical engineering)

Situation

An existing industrial plant needed an arc flash hazard assessment. I was responsible for the arc flash study and for recommending how to reduce the risk to workers.

 

Action

I gathered system data on a site visit and in a meeting with the plant technician, then modelled the electrical system in ETAP. The results showed that the arc flash hazard could be reduced through protective device setting changes and some equipment changes. Applying CSA Z462 and my knowledge of system protection, I proposed setting changes that improved selectivity and lowered tripping times. Where setting changes alone could not bring the hazard down, I proposed an upstream circuit breaker with an arc energy reduction maintenance switch.

 

Outcome

My report gave the client an arc flash hazard assessment for the plant and a set of options to reduce the risk, including the setting changes and the new upstream breaker.

 

1.4 Application of Theory: Applying Engineering Knowledge to Design Solutions

One of the most critical competencies in the Technical competencies of PEng Competency Based Assessment (CBA) is the ability to apply engineering knowledge to develop practical and innovative design solutions. This competency evaluates how applicants utilize their technical expertise to create solutions tailored to specific project requirements. Beyond theoretical understanding, it requires engineers to demonstrate creativity, sound judgment, and the ability to solve unique challenges through calculated and well-documented approaches.

Effective application of engineering knowledge involves leveraging theories, calculations, and design principles to deliver outcomes that meet functional, safety, and economic goals. This competency highlights an engineer’s problem-solving capabilities and their readiness to make decisions under constraints such as limited resources, tight deadlines, or complex client requirements.

For instance, an applicant designing a solar energy system for a northern Canadian community might detail their process for addressing the challenge of limited sunlight during winter months. This could include optimizing the system’s tilt angle, selecting photovoltaic materials suitable for cold climates, and integrating battery storage solutions to maximize energy retention. By presenting such examples in their submission, engineers can effectively illustrate their ability to address specific project needs while showcasing their technical acumen and creative problem-solving skills.

 

Illustrative sample (electrical engineering)

Situation

A client was paying power factor surcharges at several of its terminals. I was responsible for reviewing the existing electrical systems and recommending how to correct the low power factor.

 

Action

I had temporary meters installed at the terminals for ten business days to measure actual power needs. The data showed daily load swings of up to 60%, so I ruled out fixed capacitor banks and specified automatic stepped banks to prevent over-voltage conditions that could harm motors and equipment. My harmonic analysis showed voltage and current harmonics below recommended levels, so filters were not needed and resonance was not a concern. I wrote a report with budget costs for capacitor banks at each terminal to raise the power factor above 90%, and prepared the specifications for each site. I then:

• reviewed the bids and recommended the award;
• reviewed the capacitor bank shop drawings against my specifications;
• acted as the contractor’s point of contact;
• prepared the final field review reports, deficiency lists and certificates of completion.

 

Outcome

The capacitor banks were installed to my specifications and worked as designed. Three months after completion I reviewed the power factor readings and confirmed the overall power factor was between the designed 93% and 96%, above the 90% target.

 

1.5 Solution Techniques: Understanding Solution Techniques and Independently Verifying the Results

The ability to understand solution techniques and independently verify their accuracy is a cornerstone of professional engineering practice. In the Technical competencies in PEng Competency Based Assessment (CBA), this competency evaluates an engineer’s ability to critically assess engineering principles, analyze the validity of computational results, and ensure that solution techniques are robust and reliable. This is essential for maintaining public safety, project integrity, and compliance with professional standards.

Verification involves a comprehensive understanding of the methods used to derive solutions, whether through manual calculations, computer-based simulations, or advanced modeling software. Engineers must not only demonstrate their technical knowledge but also their ability to identify potential errors, validate results against theoretical principles, and make informed judgments about the adequacy of the solutions. This is one the technical competencies that reflects an engineer’s capacity to uphold quality assurance processes and maintain confidence in their designs.

For example, an engineer using finite element analysis (FEA) software to model stress distribution in a bridge design might describe their approach to verifying the results. This could include cross-checking the computational outputs with hand calculations or established analytical methods to confirm accuracy. They might also participate in an independent review, where they present their methodology, assumptions, and results to colleagues or external validators for critique and validation. Such practices ensure that the solutions meet the required safety and performance standards.

Verification is not limited to computational analysis; it also includes assessing the broader context of solution techniques. Engineers might describe their involvement in validating hydrological models for a flood prevention system, ensuring the assumptions align with field data and historical records. By participating in peer reviews or conducting sensitivity analyses, they can demonstrate their ability to refine solutions and address potential uncertainties.

Including such detailed examples in a PEng CBA submission demonstrates the applicant’s technical proficiency and their commitment to delivering reliable and thoroughly vetted engineering solutions. This competency ultimately ensures that engineers can confidently take responsibility for their work, reinforcing public trust in the profession.

 

Illustrative sample (electrical engineering)

Situation

A temporary substation needed a safety grounding and power system study, including short circuit, coordination and arc flash evaluation. Working under my supervisor, I was responsible for the system model and for the hand calculations that verified it.

 

Action

• I reviewed the drawings and requested fault data from SaskPower.
• I calculated the maximum fault currents and circuit breaker ratings by hand, using the infinite bus method.
• I modelled the system in ETAP for the short circuit evaluation and checked the results against my hand calculations and the SaskPower fault data.
• Using IEEE 80 and the limits in CEC Table 52, I selected the ground fault settings and calculated the ground potential rise, including step and touch potentials.
• Following NETA standards, I carried out the field verification: fall-of-potential testing of the ground grid and commissioning of the circuit breakers and relays.

 

Outcome

My hand calculations confirmed the ETAP results and the SaskPower fault data. Step and touch potentials were within the IEEE 80 and CEC limits, and the field tests confirmed the substation was suitable for service.

 

1.6 Safety Awareness: Knowledge and Awareness of Canadian Regulations, Codes, and Standards Pertaining to Safety

Safety is a paramount concern in engineering, and the ability to apply Canadian safety regulations, codes, and standards is crucial for ensuring public and workplace protection. In the PEng Technical competencies Competency Based Assessment (CBA), this competency evaluates an engineer’s ability to integrate safety considerations into all aspects of their work, from design and operations to maintenance and project execution. Applicants must demonstrate not only technical proficiency but also a deep commitment to safeguarding human lives and mitigating risks.

A key component of this competency, among the rest of technical competencies, involves identifying and incorporating safety considerations specific to the Canadian context. This includes participating in safety reviews, adhering to local safety procedures, and selecting appropriate safety equipment. Engineers must demonstrate their knowledge of regulations like the Occupational Health and Safety Act (OHSA) and related provincial standards, showcasing their ability to implement safety measures that comply with these frameworks.

For example, an engineer working on an industrial plant design might describe their role in incorporating safety considerations into system operations. This could involve reviewing safety procedures, ensuring compliance with Canadian standards for hazardous material handling, and specifying safety equipment such as pressure relief valves and fire suppression systems. Additionally, they might highlight their participation in a safety audit, where they identified potential risks and recommended process modifications to mitigate them.

Incorporating explicit human and public safety considerations is another critical aspect. Engineers must account for safety risks not only in operational processes but also in the broader context of public interaction with infrastructure or systems. For instance, an engineer designing a public transportation system might focus on minimizing risks by integrating emergency exits, signage, and anti-slip surfaces in stations and vehicles. These measures reflect a proactive approach to human safety and public well-being.

Applicants are also expected to demonstrate their understanding of safety risks associated with engineering processes and their ability to select appropriate protective measures. This could involve choosing safety interlocks in automated systems, implementing fail-safe mechanisms, or designing maintenance procedures to minimize exposure to hazards. By detailing such contributions, engineers illustrate their capability to anticipate and address safety concerns effectively.

By presenting detailed examples of how they integrate safety considerations into their work, applicants show their readiness to assume the responsibilities of a licensed professional engineer. This competency underscores their commitment to maintaining the highest standards of safety and their understanding of the vital role safety plays in engineering practice within Canada.

 

Illustrative sample (electrical engineering)

Situation

On a project to install a temporary high-voltage substation for a construction site, I was responsible for the electrical distribution design and for site safety during installation, under Canadian electrical and occupational health and safety requirements.

 

Action

• I led the site safety meetings and completed field-level hazard assessments before work started and whenever site conditions changed.
• Applying CSA Z462, I assessed the arc flash hazards of the new electrical equipment and recommended mitigation measures and PPE requirements to the engineer of record.
• I designed the electrical distribution to CSA C22.1 (Canadian Electrical Code, Part I) with the safety of workers and the public in mind.
• Before energization, I confirmed that the ground fault protection settings met the limits in the Canadian Electrical Code.

 

Outcome

The installation was completed on budget, met all of its safety requirements and was accepted by the client.

Tip: 1.6 is a Canadian-environment competency, so it must be rated at least 3 on its own. Describe one specific project rather than your routine across projects, and name the Canadian code, standard or regulation you applied (for example CSA Z462 or your province’s occupational health and safety regulation).

 

1.7 Systems & Their Components: Understanding of Systems as Well as Components of Systems

In the Technical competencies in PEng Competency Based Assessment (CBA), understanding systems and their components is a critical competency that highlights an engineer’s ability to approach projects holistically. This skill reflects an engineer’s ability to comprehend not just individual elements of a process but also the interactions and constraints that influence the behavior of the entire system. Demonstrating expertise in this area showcases an engineer’s capacity for systems thinking, a valuable approach for optimizing outcomes and ensuring cohesive functionality.

A robust understanding of each element in a process is the foundation of this competency. Engineers must be able to identify the purpose and role of individual components, ensuring their functionality and compatibility within the larger framework. For example, an engineer working on a water treatment plant might describe their understanding of components such as filtration units, pumps, and chemical dosing systems, detailing how each contributes to the overall water purification process.

Beyond individual elements, engineers must demonstrate their ability to analyze the interactions and constraints of the system as a whole. This involves evaluating how components work together, identifying dependencies, and addressing any constraints that could affect system performance. For instance, an engineer designing a renewable energy microgrid could illustrate how solar panels, battery storage, and power inverters interact to provide reliable energy while accounting for constraints such as fluctuating demand, storage capacity, and grid integration.

Managing processes within the overall system is another critical aspect of this competency. Engineers are expected to monitor system performance, identify inefficiencies, and make necessary modifications to achieve optimal outcomes. For example, an engineer managing a manufacturing assembly line might describe how they monitored throughput, identified bottlenecks in a specific stage, and implemented process adjustments to improve overall efficiency and reduce downtime.

The ability to think systematically is particularly valuable in multidisciplinary projects where multiple variables and components must be coordinated to achieve project goals. By presenting detailed examples of their role in understanding and optimizing systems, applicants demonstrate their readiness for independent engineering practice. This competency not only reflects technical expertise but also an engineer’s ability to adapt to complex, dynamic challenges in real-world scenarios.

 

Illustrative sample (electrical engineering)

Situation

A client wanted a complete electrical upgrade of an industrial warehouse: a redesigned control and distribution system with new instruments, cable, cable tray and PLC panels, keeping the existing mechanical equipment. I was responsible for the redesign.

 

Action

The main challenge was integrating the new electrical equipment with the older machines, so I first had to understand the existing system and how its components worked together. I inspected each machine and reviewed its instruments, motors and cable trays in detail. I found existing instruments that were unused or not connected. After discussing the findings with the client, I removed the redundant instruments from the new design and connected every remaining instrument directly to the PLC. I also sized the new cables and set the protective devices for the new distribution system.

 

Outcome

The new control system worked with the existing mechanical equipment. My report gave the client tables of the inspection findings and each machine’s mode of operation, and explained the cable sizing and protective device settings.

 

1.8 Project & Process Lifecycle: Exposure to All Stages of the Process/Project Lifecycle

In the Technical competencies of Competency Based Assessment (CBA), exposure to all stages of the process or project lifecycle is a key competency that evaluates an engineer’s ability to engage comprehensively with projects from inception to evaluation. This competency ensures applicants understand how projects progress through various phases, requiring technical, operational, and managerial contributions at each stage. It highlights the engineer’s role not just as a technical expert but as a well-rounded professional capable of addressing diverse aspects of project execution.

The lifecycle begins with Identification, where engineers contribute to generating the initial project idea and creating preliminary designs. At this stage, engineers demonstrate their ability to identify client needs, explore feasible solutions, and propose conceptual designs. For instance, an applicant working on a renewable energy project might detail their involvement in identifying viable locations for wind turbines based on geographic and environmental data.

Next is Preparation, where detailed designs are developed to address technical specifications and operational requirements. Engineers must collaborate with stakeholders to refine designs and ensure alignment with project goals. For example, an applicant could describe their role in designing a water distribution system, including hydraulic calculations, material selection, and compliance with local regulations.

The Appraisal stage involves a multi-faceted analysis of the project from technical, financial, economic, social, and environmental perspectives. Engineers are expected to balance these aspects to ensure the project’s feasibility and sustainability. For instance, a transportation engineer might discuss how they evaluated the economic benefits and environmental impacts of a proposed highway expansion to optimize design choices.

In the Preparation of Specifications and Tender Documents phase, engineers are responsible for drafting clear, accurate specifications, managing tender processes, and evaluating bids. This stage showcases their ability to translate technical requirements into actionable documents. For example, an engineer might highlight their work in preparing tender documents for a structural retrofit, ensuring clarity for contractors and alignment with design criteria.

The Implementation and Monitoring phase focuses on executing project activities while maintaining oversight to ensure progress and quality. Engineers must manage tasks, resolve issues, and incorporate ongoing feedback. An applicant might describe supervising the construction of a high-rise building, detailing how they addressed unexpected challenges, ensured compliance with safety standards, and kept the project on schedule.

Finally, the Evaluation stage involves assessing project outcomes and documenting lessons learned. Engineers provide feedback that informs future projects, emphasizing a commitment to continuous improvement. For example, an engineer working on a manufacturing plant upgrade might detail their post-implementation review, analyzing the efficiency of new processes and recommending adjustments for future designs.

By demonstrating involvement across all stages of the lifecycle, engineers showcase their ability to contribute holistically to project success. This competency reflects a deep understanding of how technical, financial, and operational aspects intertwine, underscoring the applicant’s readiness for independent engineering practice.

 

Illustrative sample (electrical engineering)

Situation

A school district wanted to reduce the energy used by the lighting in its schools without lowering light levels. I was responsible for the upgrade from the initial study through construction to completion.

 

Action

I identified possible upgrades in the existing buildings and prepared a report with budget costs for three design concepts, then prepared and issued the tender package. Through tender and construction I:

• led bidders’ tours of each building and answered their questions;
• reviewed the bids and made recommendations to the school board;
• met the successful contractor and acted as the liaison between the contractor and the school board;
• reviewed shop drawings;
• prepared contemplated change notices and change orders as required;
• carried out the final field review, issued the deficiency report and issued the completion certificate.

 

Outcome

The project was completed to the client’s satisfaction, and the calculated energy savings were counted toward the target of the district’s energy management program.

 

1.9 Peer Review & Quality Control: Understanding of the Role of Peer Review and Quality Management

Peer review and quality management are integral to maintaining the high standards expected of professional engineers in Canada. In the Technical competencies of PEng Competency Based Assessment (CBA), this competency evaluates an applicant’s ability to ensure accuracy, reliability, and compliance in their engineering work through systematic checks and collaborative review processes. It underscores an engineer’s responsibility to uphold public safety and deliver results that meet technical and operational requirements.

A key aspect of this competency is conducting thorough checks, including field verifications, to validate designs. Engineers must demonstrate their ability to assess whether a design aligns with project specifications and functions as intended. For example, an applicant might detail their role in performing site inspections during the construction of a wastewater treatment plant to confirm that installations matched the approved designs and addressed any discrepancies promptly.

Engineers are also expected to adhere to Quality Management principles, following established guidelines provided by provincial or territorial regulators. This may include the Authentication of Documents, the Use of the Seal, and methods for reviewing work prepared by others. By demonstrating knowledge and application of these practices, engineers ensure their work complies with professional and regulatory standards. For instance, an applicant could describe authenticating design documents for a structural retrofit, ensuring the integrity of calculations and adherence to building codes.

Preparing quality control plans is another critical component. These plans detail the frequency and parameters of tests for specific processes or products, providing a framework for consistent quality assurance. For example, an engineer might describe developing a quality control plan for a bridge construction project, specifying material tests and tolerances to ensure structural integrity and durability.

In addition to creating plans, engineers must evaluate test results, determine their adequacy, and develop corrective actions when necessary. This process demonstrates an engineer’s ability to identify issues, assess their impact, and implement effective solutions. For instance, an applicant might highlight their analysis of material test failures during a pipeline project and the subsequent adjustments made to meet design specifications.

Peer review is another cornerstone of this competency. Engineers must demonstrate their ability to participate in or lead peer review processes, ensuring that designs and methodologies are critically assessed by qualified professionals. An applicant might describe their role in organizing peer reviews for an industrial facility’s mechanical systems, where team discussions led to enhanced safety measures and operational efficiency.

Finally, engineers must ensure that completed projects, systems, or subsystems meet their objectives in terms of functionality and performance. For example, an engineer might describe their role in finalizing a solar power system, verifying its output capacity and operational efficiency before handing it over to the client.

By providing detailed examples of their involvement in quality management and peer review, applicants highlight their commitment to professional excellence and their readiness to independently manage engineering responsibilities. This competency reflects an engineer’s ability to maintain high standards, collaborate effectively, and ensure the safety and reliability of their work.

 

Illustrative sample (electrical engineering)

Situation

I was responsible for designing 18 electric vehicle charging stations at eight multi-unit corporate buildings, including drawings, specifications and contractor pricing, and for managing construction from start to completion.

 

Action

My supervisor reviewed the first two sites with me; I reviewed the other six on my own, using the same checks. At each site I:

• checked the proposed charger locations for proximity to electrical rooms and panels;
• mapped and routed the wire and conduit runs from the electrical room;
• checked each panel’s service size and voltage;
• calculated the voltage drop on each run;
• calculated the added load on each panel board to confirm it would not be overloaded.

I built my supervisor’s review comments from the first two sites into my checks for the remaining six.

 

Outcome

All 18 charging stations were installed at the eight buildings without overloading any panel, and the project was completed as designed.

Tip: 1.9 is also a Canadian-environment competency (minimum 3). Where you can, show how you followed your regulator’s practice guidelines on quality management, such as authenticating documents or reviewing work prepared by others.

 

1.10 Engineering Documentation: Transfer Design Intentions to Drawings and Sketches; Understand Transmittal of Design Information to Design Documents

The ability to translate design intentions into clear and actionable drawings, sketches, and documentation is a critical skill for professional engineers. In the Technical competencies in Competency Based Assessment (CBA), this competency evaluates an applicant’s capability to effectively communicate technical ideas, ensuring designs are accurately implemented and meet both client expectations and regulatory requirements. This competency highlights the importance of clarity, precision, and thoroughness in the design and documentation process.

A fundamental aspect of this competency is the ability to review designs prepared by others and provide constructive feedback. Engineers must assess designs for accuracy, functionality, and compliance with project goals, and communicate their findings clearly, including suggestions for alternatives where necessary. For example, an applicant might describe reviewing structural designs for a high-rise building, identifying areas for improvement, and proposing cost-effective solutions to enhance stability and compliance with local codes.

Another key element is demonstrating the ability to communicate design ideas and concepts effectively to project team members. This involves breaking down complex technical information into understandable terms, facilitating collaboration, and ensuring all stakeholders are aligned. For instance, an engineer working on a bridge construction project could describe how they presented design alternatives to the client and contractor, explaining the trade-offs in materials, costs, and durability.

The competency also emphasizes the importance of project completion reports and lessons learned reports. These documents capture valuable insights that can inform future projects, promoting continuous improvement in engineering practices. For example, an applicant might highlight their role in preparing a lessons learned report for a power plant upgrade, detailing the challenges encountered during installation and recommending process improvements for similar future projects.

Finally, producing high-quality sketches, notes, documentation, and design drawings is central to this competency. Engineers must ensure that their design deliverables are clear, precise, and comprehensive, serving as a reliable basis for project implementation and regulatory approval. For instance, an applicant could describe creating detailed CAD drawings and technical specifications for a municipal water pipeline system, ensuring that contractors could easily interpret and execute the designs while meeting regulatory standards.

By providing examples of how they have successfully transferred design intentions into actionable deliverables, applicants demonstrate their ability to bridge the gap between conceptual ideas and practical execution. This competency underscores the importance of communication, collaboration, and meticulous documentation in engineering practice, ensuring that projects are carried out efficiently and effectively.

 

Illustrative sample (electrical engineering)

Situation

On an exterior lighting upgrade, I was responsible for the initial investigation and concept design, then for the detailed design and implementation. The bid documents needed layout drawings and specifications with itemized and unit pricing.

 

Action

I prepared the layout drawings and specifications for the tender package. My drawings showed:

• installation details for the concrete bases and underground service trenches;
• the location of each new light;
• labels for each light type and the height of each new pole;
• the control zones for each type of lighting;
• the location of each electrical service feed.

I set up the specifications with itemized and unit pricing so the bids could be compared line by line.

 

Outcome

The contractor built the new lighting and control systems from my drawings with little further direction.

 

Technical examples from outside Canada

You can use international experience for the technical competencies. For the three Canadian-environment competencies (1.1, 1.6 and 1.9), though, the assessor needs to see that you know how the work would be done in Canada:

• The shared framework’s indicators for 1.1 ask you to identify the Canadian, provincial or territorial, regional or Indigenous codes, standards or practice guidelines that apply to your example, and to briefly discuss how they would have been applied if the work had taken place in Canada.
• APEGA’s current guidance says that where possible, Canadian codes should be used; internationally trained applicants identify the equivalent Canadian codes.
• Engineers PEI’s interpretation statements (May 2026) say an example for 1.1 must cite a specific Canadian regulation, code or standard and the section you applied.
• PEO accepts knowledge of the regulations, codes and standards used in Canada or their international equivalent for its professional standards competencies, so experience from any country can meet them if you show the equivalent standard.
• At EGBC and EGM, a Canadian-environment competency rated 1 or 2 in an otherwise ready application can lead the assessor to assign units of the Working in Canada Seminar. APEGS applies its own rules: its guide says a candidate whose example is judged not equivalent to Canadian practice may be assigned portions of the seminar.

For more detail, see how to write the 8 Canadian-environment competencies with international experience.

Who should validate your technical examples

Every validator must have direct, first-hand knowledge of the work they validate. Several regulators set extra expectations for technical and Canadian-environment examples (as of September 2026):

Regulator	Expectation for technical examples
PEO	For work done in Canada, the validator must have been a P.Eng. licensed in Canada at the time the work was carried out. For work abroad, the validator should be a senior engineer licensed in that jurisdiction.
APEGA (also NAPEG and Engineers Yukon applicants)	A P.Eng. validator is expected for Category 1 (technical) work done in Canada. For work abroad, a practitioner with an engineering degree and four years of experience can validate.
APEGS	Each Canadian-environment competency needs a validator who is a licensed professional, took responsibility for the work and was licensed when it took place.
EGBC and Engineers Geoscientists Manitoba	Validators who are not P.Eng. should be direct supervisors if they validate Canadian-environment competencies such as 1.1, 1.6 and 1.9.
Engineers PEI	Examples for the Canadian-environment competencies must be validated by a P.Eng.

If nobody at your company holds a P.Eng., see how to get your CBA experience validated without one. For US and overseas validators, see who can validate your CBA from outside Canada.

Conclusion

The PEng Technical competencies of Competency Based Assessment (CBA) is more than just a licensing requirement—it’s an opportunity for engineers to showcase their expertise, problem-solving skills, and readiness for independent practice. Competencies such as risk analysis, peer review, quality management, and translating design intentions into actionable deliverables are essential for ensuring public safety, project success, and adherence to professional standards.

By effectively aligning your experience with the CBA competencies and presenting clear, detailed examples, you can confidently demonstrate your qualifications for licensure as a Professional Engineer (P.Eng.). Each competency you fulfill brings you one step closer to earning this prestigious designation and advancing your professional career.

Ready to make your Competency-Based Assessment process smoother? Try CBA Pro: it interviews you about your own work, competency by competency, and turns your answers into a draft for you to review, showing you where information is still missing. AI can help you organize your notes and check your own draft for gaps, but your examples must be your own work and you remain responsible for them. EGBC, EGM, Engineers Nova Scotia and Engineers PEI prohibit using AI (or third parties) to create or embellish examples; APEGS and PEO hold you fully responsible for the accuracy and authenticity of anything AI helped with. See what each regulator allows.