Principal Engineer - HVDC Systems Engineering
About the job
- The ability to lead HVDC system design and studies and translate customer needs into practical, robust, and value-driven technical solutions.
- The capability to work across power system design, circuit analysis, power control, reactive power design, and HVAC and HVDC system engineering topics.
- An understanding of high-voltage equipment specification, design, testing, and lifecycle management, including transformers, reactors, capacitors, switchgear, instrument transformers, transducers, surge arresters, bushings, and insulators.
- Expertise in electrical power systems modelling and analysis, including awareness of network studies and the ability to assess system performance, losses, and technical risk.
- Knowledge of reliability, availability, and maintainability; insulation coordination; harmonic analysis; power quality; radio frequency interference; electromagnetic compatibility; and audible noise assessment and mitigation.
- Familiarity with PSS/E, DIgSILENT, PSCAD, EMTP-RV, ATP, ReliaSoft, Isograph, SoundPLAN, DOORS, Python, MATLAB, and VBA.
- The ability to communicate clearly in English, build well-supported technical arguments, influence stakeholders, and work effectively with customers, suppliers, and multidisciplinary global teams.
- A collaborative and thoughtful approach to technical leadership, planning, negotiation, team facilitation, risk and opportunity management, and engineering decision-making.
- Lead the overall HVDC technical solution to meet customer requirements using reference solutions and sound engineering judgement.
- Develop integrated HVDC scheme designs by defining subsystem ratings, functionalities, and interfaces in an optimized and cost-effective way.
- Plan execution strategies with team leaders, support engineering estimates, and identify risks, issues, and mitigation plans for new opportunities.
- Define and maintain technical specifications, guidance notes, and engineering standards for HVDC systems and high-value high-voltage equipment.
- Manage the lifecycle of key high-voltage equipment, including transformers, reactors, capacitors, instrument transformers, and surge arresters, from requirements and specification through supplier management, validation, testing, manufacturing, and commissioning.
- Deliver reliability, availability, and maintainability studies, as well as electrical losses modelling, to provide technical insight and support lifecycle decision-making.
- Provide expert technical input to design reviews, project proposals, customer negotiations, supplier audits, and cross-functional problem solving across manufacturing, supply, and field activities.
- Improve engineering tools, operational processes, systems, and technical solutions to enhance customer value, business efficiency, product introduction, cost performance, and schedule adherence.
- Represent GE Vernova externally with customers, suppliers, professional bodies, conferences, and academic institutions, while supporting innovation and intellectual property activities including patent evaluation.
- Mentor engineers, support technical development and succession planning, and contribute to hiring and promotion discussions within the engineering community.
- A University Bachelor's or Master's degree in Power Systems Engineering or a related field.
- An interest in continuous improvement, innovation, emerging technologies, and sharing knowledge to help others grow.
About the company
GE Vernova makes equipment and software that generate and manage electricity for utilities, power producers, and industrial customers. Its Power, Wind, and Electrification businesses span gas turbines, wind generation, and the systems that move electricity across grids. The company supplies generators, grid equipment, and controls, while its software coordinates network operations and integrates changing sources of power. Customers buy equipment and enter service agreements for maintenance, upgrades, and technical support over its operating life, alongside purchases of software and related services. GE Vernova became an independent company in 2024 after separating from GE and is headquartered in Cambridge, Massachusetts.
Company Size
10,001+
Company Stage
N/A
Total Funding
$17.6M
Headquarters
Cambridge, Massachusetts
Founded
2024
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Simplify's Take
What believers are saying
- Demand supports expansion: July 2026 results show GE Vernova booked $24.2 billion of quarterly orders, up 88% organically.
- Service commitments support recurring work: GE Vernova says services account for more than 55% of its backlog.
- Graduates build depth through rotations: GE Vernova runs two-year Next Gen development programs in engineering, technology, and operations.
What critics are saying
- Wind remains a drag: July 2026 results show GE Vernova lost $275 million in quarterly Wind segment EBITDA.
- Project margins absorb overruns: GE Vernova locks prices before completion and discloses meaningful expenses from excess costs and penalties.
- Field assignments demand long weeks: GE Vernova's listed transformer specialist works typical 12-hour site days, up to six weekly.
What makes GE Vernova unique
- Its technology underpins global power: GE Vernova says customers generate approximately one-quarter of world electricity using its equipment.
- Gas turbine scale anchors expertise: GE Vernova reports the largest installed fleet by generating capacity, across approximately 7,000 turbines.
- Nuclear work reaches beyond equipment: GE Vernova Hitachi supplies advanced reactors, fuel, and services for operating plants.
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Benefits
Health Insurance
Dental Insurance
Vision Insurance
Life Insurance
Disability Insurance
401(k) Retirement Plan
401(k) Company Match
Paid Vacation
Paid Parental Leave
Mental Health Support
Relocation Assistance
Performance Bonus
Company News
Jim Cramer highlighted GE Vernova and Vertiv on 2 October, noting their exposure to data centre growth. He questioned why the jobs report didn't reflect the data centre buildout, suggesting commercial construction is weak whilst data centre projects remain strong. Vertiv's Q2 net sales grew 24% annually, with operating profit up 44%. However, revenue growth of 17.8% missed analyst estimates of 23.6% due to supply chain issues, raising concerns about backlog conversion. The company's capital expenditure surged 285% to $173 million. GE Vernova's shares have risen over 240% since October 2024. Q2 customer downpayments generated a $6.4 billion working capital benefit, pushing free cash flow up 2,532% to $5.1 billion. The company raised its full-year cash flow guidance to $11.5–$12.5 billion from $6.5–$7.5 billion.
General Electric spun off its energy division as GE Vernova on 2 April 2024. The stock opened at $142.25 per share and reached a record high of $1,174.86 on 30 June 2026, now trading at about $1,000. GE Vernova operates three segments: Power, Electrification, and Wind. Strong demand from cloud and AI markets drove growth in its Power and Electrification businesses, whilst the Wind segment faced operational challenges. The company's backlog grew 37% year-over-year to $176.3 billion at the end of Q2 2026. Analysts expect revenue and adjusted EBITDA to grow at compound annual growth rates of 17% and 60% respectively from 2025 to 2028. GE Vernova trades at 27 times next year's adjusted EBITDA, with an enterprise value of $262 billion.
GE Vernova, General Electric's former energy division spun off in 2024, is positioned to benefit from surging power demands at AI data centres. The company operates three segments: Power (55% of 2025 orders), Electrification (33%), and Wind (13%), providing turbines, transformers, and grid services. Orders grew 24% organically in the first half of 2026, driven by Power and Electrification segments. By Q2 2026, GE Vernova's backlog reached $176.3 billion — 4.6 times its 2025 revenue of $38.1 billion. The company expects 2026 revenue to grow 20-22%, accelerating from 9% growth in 2025 and 5% in 2024. Fortune Business Insights projects the global AI in power utilities market could expand at a 19.3% compound annual growth rate from 2026 to 2034.
Four major engineering firms have signed a memorandum of understanding to cooperate on building and deploying small modular reactors (SMRs) in Europe. GE Vernova, Hitachi, Samsung C&T, and Poland-based SGE will work together on market development and commercial opportunities for the BWRX-300, an SMR developed by GE Vernova and Hitachi subsidiaries. The agreement was signed during the Atlantic Council Nuclear Energy Policy Summit at the UN General Assembly in New York. SMRs are smaller-scale, plug-and-play nuclear generators that are cheaper and quicker to construct than traditional nuclear plants. They use low-enriched uranium that can be sourced entirely from western enrichment providers. The initiative has government backing from the US, Japan, and South Korea, supported by a trilateral agreement signed at the recent NATO summit.
GE Vernova shares have fallen 20.8% from their 52-week high of $1,195.94, closing at $946.22 on 21 September. Despite the pullback, the stock remains up 47% over the past year. The company reported strong second-quarter results, with orders of $24.2 billion, up 88% organically year-on-year. Revenue reached $11.1 billion, up 22%, whilst net income for the first six months totalled $5.3 billion, compared with $756 million in the prior-year period. GE Vernova is positioned to benefit from surging power demand driven by artificial intelligence data centres. The company also has a nuclear energy division developing small modular reactors through a joint venture with Hitachi, with commercial operation expected by the end of 2030. The company faces challenges including a forward price-to-earnings ratio of 38.1 and declining wind division sales.