​

       drawings, single-line electrical diagrams, etc.) align with actual site conditions. Provide field data and insights so that array layouts,         cable routes, substation locations and other design elements are accurately planned. Review design drawings and specifications             from a constructability and accuracy perspective, and coordinate any required design adjustments based on on-site findings.                   Assist in preparing technical documents such as bill of materials, engineering calculations, and method statements for project                 execution plans. 

• Permitting & Compliance Assistance: Support the Project Manager in obtaining permits and regulatory approvals by supplying necessary technical details and ensuring engineering plans meet regulatory requirements. Liaise with external stakeholders on technical aspects – for example, coordinate with utility companies (ESB Networks) to provide data for grid connection agreements, or with local authorities to address planning conditions and environmental regulations. Ensure all technical submissions (grid connection applications, safety case documents, etc.) are completed accurately and on time. 

• On-Site Technical Oversight: During construction, act as the technical eyes on the ground to ensure the project is built according to design specifications and quality standards. Conduct routine site visits to monitor progress and perform quality checks on installation work (e.g. verify piling locations and tilt angles, check trench depths for cabling, confirm correct panels/inverters are installed per design). If any discrepancies or unexpected site issues arise (like unforeseen ground conditions or a clash between design and reality), identify and communicate these promptly, and work with the Project Manager and design team to implement solutions or design modifications. 

• Contractor Coordination & Support: Work alongside contractors and subcontractors (civil works crews, electrical installers, etc.) to answer technical queries (RFIs – Requests for Information) and clarify design intent. Provide on-site guidance to ensure complex tasks (like HV cable terminations, inverter station commissioning, or SCADA system setup) are executed correctly. Essentially, bridge the gap between the engineering office and field work – if a contractor encounters a problem or confusion, the Project Engineer can interpret the design documents, suggest practical resolutions, and loop in the design engineers for approval if needed. 

• Testing & Commissioning: Assist in the commissioning phase of utility-scale projects. Help prepare testing protocols and coordinate energisation schedules with the utility company. Ensure all components undergo proper testing (such as insulation resistance tests, performance ratio testing, relay protection tests, etc.). Collect and verify test results against expected performance parameters. Work with senior engineers or equipment suppliers to troubleshoot any issues discovered during commissioning . Ensure that the project’s electrical and mechanical completion checklists are fully addressed before final handover. 

• Documentation & Record-Keeping: Maintain up-to-date technical documentation and records throughout the project. Manage logs such as RFI (request for information) trackers, design change logs, and commissioning reports. Ensure that “as-built” drawings and documentation are prepared to reflect any changes made during construction, so the final records match what was actually built. Organise all relevant technical documents – permits, test certificates, equipment datasheets, O&M manuals – into the project turnover package, supporting a smooth handover to the operations/maintenance team or client. 

• Initial Performance Monitoring & Optimisation: If involved during early operations, help monitor the initial performance of the solar farm once operational. Analyse the energy production data and compare it to expected values. Identify any technical issues affecting performance (e.g. underperforming strings, inverter settings) and coordinate their resolution. Provide feedback to the design and operations teams on any improvements or adjustments that could enhance energy production efficiency.

​

Required Qualifications 

​

• Educational Background: Bachelor’s degree in Electrical Engineering, Mechanical Engineering, Energy Systems Engineering, or a related technical field. A degree focusing on renewable energy or power systems is highly advantageous. Candidates with a Civil or Structural Engineering background plus significant solar project experience will also be considered, given the interdisciplinary nature of solar farm development. 

• Experience: Approximately 2–5 years of experience in engineering roles related to solar PV or power projects. This could include work as a project engineer, design engineer, or site engineer on large-scale solar farms, wind farms, or electrical infrastructure projects. Experience should demonstrate familiarity with the full project lifecycle – from design and permitting through construction and commissioning – and a hands-on understanding of field implementation. 

• Technical Knowledge: Strong knowledge of solar energy systems including PV module technology, inverter functionality, and basics of energy storage (if battery systems are part of projects). Solid understanding of electrical systems (DC and AC), including medium-voltage grid connection infrastructure (transformers, switchgear, substations) and grid integration requirements. Able to read and interpret engineering drawings (site plans, electrical schematics, wiring diagrams) and specifications. Understanding of the civil engineering aspects of solar farms (e.g. site grading, mounting structure foundations, access roads) and how they impact the project. 

• Regulatory and Standards Awareness: Familiarity with Irish and international standards/codes relevant to solar farm construction and electrical installations. Knowledge of the permitting process for solar farms, including environmental impact considerations and grid code compliance for connecting to the transmission/distribution network. Awareness of health and safety regulations for construction and electrical works, ensuring designs incorporate “safety by design” principles. 

• IT and Software Skills: Proficiency in engineering software tools. For example, experience with PV design/simulation software like PVsyst or Helioscope for energy yield modelling, and CAD tools such as AutoCAD (or GIS software) for layout planning is valuable. Competence in MS Office for reporting and data analysis is expected. Experience with project management or collaboration software (MS Project, Asana, etc.) is a plus for coordinating tasks and schedules. 

• Certifications: Safe Pass (required for any site work in Ireland). Having or working towards a professional engineering title (e.g. Chartered Engineer with Engineers Ireland) can be a plus, but is not mandatory. Any additional certifications, such as HV/MV safety training (for working around high-voltage equipment) or specific manufacturer training on inverters/SCADA, will be viewed favourably. 

• Soft Skills: Excellent communication skills are needed to liaise effectively between the office engineering team and site teams. Must be able to write clear technical reports and also translate “engineer-speak” into plain instructions for contractors. Strong organisational skills to keep track of many details and documents. Fluent in English, with the ability to produce professional technical documentation. A full driving licence and willingness to travel frequently to project sites (including remote rural locations) is required. Flexibility in work hours is sometimes necessary to meet project deadlines or coordinate with international suppliers in different time zones. 

​

Key Competencies and Skills 

​

• Technical Proficiency & Analytical Thinking: Demonstrates a high level of engineering competence. Able to analyse complex technical problems – whether it’s a discrepancy between design and site conditions or a performance shortfall – and break them down to find root causes. Uses a data-driven approach to validate assumptions (for instance, analysing production data or test results to ensure they meet expected parameters). 

• Detail Orientation: Pays close attention to detail when collecting site data and verifying work. Catches small issues (like a mis-positioned anchor or an incorrectly wired string) that could have larger impacts if not corrected. Ensures calculations and technical documents are precise; this accuracy helps avoid costly rework and ensures the integrity of the solar farm. 

• Communication & Collaboration: Acts as an effective bridge between different teams – design engineers, project managers, construction crews, and external stakeholders. Can communicate technical information clearly to non-engineers, translating complex concepts into actionable guidance . A good listener who understands concerns from site staff or contractors and responds appropriately. Keeps all parties informed of changes or findings to prevent misalignment. 

• Problem-Solving & Adaptability: When unexpected challenges arise (and they often do in the field), the Project Engineer remains solutions-oriented. Quickly formulates practical solutions or workarounds – for example, if a planned cable route hits a subsurface obstacle, suggest an alternative routing; if trenching encounters bedrock, propose adjustments or different equipment. Adaptive and creative in resolving issues while maintaining engineering principles and safety. Thrives in a dynamic environment where each day can be different and plans can change. 

• Project Management Support: Strong time management and organisational skills, enabling the handling of multiple tasks and deadlines. Helps the Project Manager by tracking technical to-dos and ensuring none fall through the cracks – for example, following up on a delayed drawing revision or making sure specialized test equipment is ordered in time. Understands the overall project schedule and can prioritise engineering tasks to fit that schedule. Maintains an organised system for project documents and status updates. 

• Quality and Safety Conscious: Instils quality in every step of engineering and execution. Advocates for doing things right the first time – e.g. double-checking calculations or measurements. Understands that engineering decisions have safety implications; ensures designs and modifications remain compliant with safety standards. Monitors that contractors follow technical specifications and relevant safety practices (such as proper lockout-tagout procedures during commissioning). 

• Continuous Learning & Improvement: Stays informed about the latest solar technologies, equipment improvements, and industry best practices. For instance, keeps up with new inverter models, emerging energy storage integration techniques, or updated grid requirements. Eager to incorporate lessons from each project into the next – suggesting standardisation of certain design elements or new tools for data collection if they can improve outcomes. Shows enthusiasm for renewable energy and reflects Mitros’s values through a commitment to professional growth and innovation in engineering. 

​

Contribution to Mitros’s Mission and Sustainability Goals 

​​

The Project Engineer ensures that utility-scale solar projects are engineered and executed to the highest standards, which means they will operate efficiently and maximise renewable energy production once online. By getting the technical details right (optimal panel placement, minimizing losses, etc.), this role directly contributes to each solar farm delivering its promised clean energy output, supporting both Mitros’s business success and broader sustainability targets. A well-built solar farm is a long-term asset in fighting climate change – the Project Engineer’s focus on quality control and problem-solving helps prevent issues that could compromise reliability. In turn, the solar plants Mitros builds are more reliable and have higher uptime, supplying consistent green power to the grid. This strengthens the impact of renewable energy in the mix and builds confidence in solar as a dependable resource for Ireland’s sustainable future. By streamlining the interface between design and construction, the Project Engineer also helps avoid delays and cost overruns, meaning Mitros can take on more projects and bring them to completion faster. Each on-time, on-budget completion adds to the cumulative renewable capacity feeding into the grid. Thus, though often behind the scenes, the Project Engineer plays a pivotal part in scaling up renewable energy deployment at the pace needed to meet climate goals. Moreover, by contributing technical insights and learning from each project, the Project Engineer drives continuous improvement in Mitros’s processes and designs. Over time, designs become more optimised and methods more efficient, reducing waste (material and effort) and improving performance. This spirit of innovation and optimisation ensures Mitros grows sustainably and intelligently – constantly enhancing the environmental and economic efficiency of its solar projects. In sum, the Project Engineer enables Mitros to execute projects swiftly without sacrificing quality, accelerating the transition to sustainable energy one well-engineered solar farm at a time.