Jobs at GE Vernova

Responsible for designing Printed Circuit Boards for BWRX-300 reactors, collaborating with vendors, managing technical issues, and ensuring quality standards are met.

The Lead Systems Engineer designs and tests instrumentation and control systems for safety functions in reactors, ensuring integration and system performance.

The Lead FPGA Engineer designs and develops embedded software for safety-critical functions. Responsibilities include preparing specifications, developing firmware, performing testing, and engaging with customers on project scope and risks.

The Lead Systems Engineer designs and tests Instrumentation and Control platforms for safety critical functions, ensuring integration and performance. Responsibilities include component integration, requirements management, and leading technical reviews.

The Mechanical Engineer designs, develops, and tests I&C equipment, ensures mechanical components meet requirements, engages with customers, and documents analysis effectively.

The Systems Engineer designs, develops, and tests control systems for BWRX-300 reactors, ensuring requirements management and effective collaboration with engineering teams.

The Hardware Engineer designs and manufactures PCB equipment for safety-critical functions, focusing on vendor collaboration and ensuring quality standards.

The Mechanical Engineer will design and test I&C systems for the BWRX-300 Reactor, while collaborating with teams and ensuring tasks meet quality standards.

The Lead Engineer is responsible for mechanical systems engineering related to the BWRX-300 SMR design, overseeing project execution and regulatory deliverables, while driving continuous improvement through Six Sigma and Lean methodologies.

This role leads the financial management of the North America OTR process, ensuring accurate order management, revenue recognition, and financial performance. Responsibilities include forecasting, analysis, monthly closing, and compliance, while coaching financial analysts and improving financial controls.

Lead the structural analysis of reactor pressure vessels and internal components, ensuring compliance with engineering standards, particularly ASME BPVC Section III. Responsibilities include finite element analysis, developing engineering solutions, preparing technical documentation, and mentoring junior engineers.

The Digital Substation Product Manager leads the strategy and execution of substation automation solutions, ensuring market relevance and product growth while managing cross-functional teams and aligning with industry standards.

The role involves leading the technical definition and implementation of IEC 61850-based architectures, supporting real-time controller solutions, and providing guidance to engineers. The engineer will analyze specifications, propose developments, and assist customer support in communication protocol issues.

The Lead Engineer provides advanced technical support for hardware in Grid Automation, resolves customer product issues, leads investigations, and collaborates with R&D.

Lead technology strategy for software-defined automation solutions in the electric grid, fostering innovation and customer partnerships through new technologies.

Lead the architecture and development of software platforms for T&D systems, ensuring security, performance, and integration while mentoring a team and collaborating across functions.

The Senior Engineer in Mechanical Systems will oversee design, analysis, and coordination of mechanical systems, ensuring quality compliance and supporting project management tasks in nuclear system design.

Lead the design and deployment of AI/ML solutions for grid automation, manage teams, drive innovation, and ensure adherence to architectural standards.

The Mechanical Analysis Engineer will perform structural analysis for reactor pressure vessels, using FEA tools to ensure compliance with ASME standards and support SMR technology development.

Lead and mentor a team focusing on mechanical design, installation planning, compliance with ASME codes, and ensure execution excellence on the BWRX-300 project while driving process improvements and maintaining safety standards.