1

Battery Modeling Engineer Jobs in Florida (NOW HIRING)

Senior BESS Engineer

Juno Beach, FL · On-site

$104.70K - $143.20K/yr

Design and engineer large-scale Battery Energy Storage Systems (BESS), including containerized solutions and DC-coupled architectures. Perform complex electrical modeling to ensure BESS integration ...

Senior BESS Engineer

North Palm Beach, FL · On-site

$104.70K - $143.20K/yr

Design and engineer large-scale Battery Energy Storage Systems (BESS), including containerized solutions and DC-coupled architectures. Perform complex electrical modeling to ensure BESS integration ...

We provide the most complete business model for data center, manufacturing, commercial, and ... Develop integrated solutions using battery energy storage systems, microgrid generation, controls ...

Be Seen First

... modeling * Support design-for-manufacturing (DFM), prototyping, and testing for small-to-medium ... Solid understanding of power electronics, battery charging circuits, high-density interconnect (HDI ...

Senior Controls Engineer

Jacksonville, FL · On-site

$140K - $180K/yr

At Voltify, we are building the next generation of rail - battery locomotives that fast charge ... Develop Python-based backend services, converting optimization model outputs into actionable ...

$97.50K - $127K/yr

Design, model, simulate, prototype, and test complex electronic circuits, subsystems, systems and ... Pluses include experience with microcontrollers, low power design, battery operation, and switching ...

next page

Showing results 1-20

Battery Modeling Engineer information

What are the key skills and qualifications needed to thrive as a Battery Modeling Engineer, and why are they important?

To thrive as a Battery Modeling Engineer, you need a strong background in electrochemistry, physics, and advanced mathematics, typically supported by a degree in engineering or a related field. Proficiency in simulation tools such as COMSOL Multiphysics, MATLAB, and Python, along with familiarity with battery management systems, is essential. Strong problem-solving skills, attention to detail, and effective communication help you collaborate and solve complex battery performance challenges. These skills are crucial for designing accurate models that drive innovation and efficiency in battery technology.

How does a Battery Modeling Engineer typically collaborate with cross-functional teams in the development process?

Battery Modeling Engineers frequently work alongside electrochemists, hardware engineers, and data scientists to develop and refine battery systems. They translate experimental data and design requirements into simulation models, ensuring alignment between theoretical predictions and real-world performance. Effective communication and regular meetings are essential, as Battery Modeling Engineers often provide critical insights that inform design decisions, troubleshooting, and optimization of battery performance. This collaborative environment fosters innovation and helps accelerate product development cycles.

What are Battery Modeling Engineers?

Battery Modeling Engineers are professionals who design, develop, and optimize mathematical models that simulate the behavior and performance of batteries. They use these models to predict battery life, efficiency, safety, and performance under various conditions, helping to improve battery technology for applications like electric vehicles, consumer electronics, and renewable energy storage. Their work often involves collaborating with chemists, electrical engineers, and software developers to create accurate simulations and guide the development of new battery technologies.

What is the difference between Battery Modeling Engineer vs Battery Test Engineer?

AspectBattery Modeling EngineerBattery Test Engineer
CredentialsDegree in Electrical, Mechanical, or Chemical Engineering; knowledge of modeling softwareDegree in Electrical, Mechanical, or Chemical Engineering; experience with testing equipment
Work EnvironmentDesign labs, simulation environments, R&D departmentsTesting labs, quality assurance, product validation
Industry UsageBattery development, simulation, and optimizationProduct testing, validation, and quality control
Search/Comparison IntentFocus on modeling and simulation skillsFocus on testing procedures and validation processes

The main difference between a Battery Modeling Engineer and a Battery Test Engineer lies in their focus areas. The Battery Modeling Engineer specializes in creating simulations and models to predict battery performance, while the Battery Test Engineer conducts physical tests to validate battery quality and safety. Both roles are essential in battery development but serve different stages of the product lifecycle.

What cities in Florida are hiring for Battery Modeling Engineer jobs? Cities in Florida with the most Battery Modeling Engineer job openings:
Infographic showing various Battery Modeling Engineer job openings in Florida as of May 2026, with employment types broken down into 1% Internship, 91% Full Time, and 8% Part Time. Highlights an 79% Physical, 2% Hybrid, and 19% Remote job distribution.
Lead Power Electronics Controls and Modeling Engineer

Lead Power Electronics Controls and Modeling Engineer

IS International Services

Heathrow, FL • On-site

Full-time

Posted 12 days ago


Job description

The Power Electronics Controls & Modeling Engineer is a hands-on technical role focused on the analysis, simulation, and validation of Company's next-generation Modular Multilevel Converter (MMC) platform. Reporting to the Power Electronics and Modeling Manager, this engineer will be responsible for building and maintaining high-fidelity simulation models to verify system performance, stability, and grid code compliance.
This role is ideal for a deeply analytical engineer who lives in MATLAB/Simulink and PSCAD.
You will support the development of advanced control algorithms (Grid Forming & Grid Following) and serve as the primary validation resource, running complex scenarios to ensure our external design partners meet our rigorous technical requirements.
Requirements
Essential duties and responsibilities include, but are not limited to the following:
Modeling & Simulation
o Model Development: Develop and maintain detailed simulation models (Average and Switching models) in MATLAB/Simulink, and PSCAD for the BESS Power Conversion System.
o Grid Study Execution: Perform electromagnetic transient (EMT) studies to simulate grid events-including Low/High Voltage Ride Through (L/HVRT), frequency excursions, and weak grid operation (low SCR).
o MMC Dynamics: Simulate specific MMC behaviors, including capacitor voltage balancing, circulating current suppression, and protection coordination.
Control Algorithm Support
o Algorithm Design: Assist in the design and tuning of control loops for Grid Following (GFL) and Grid Forming (GFM) modes, including Virtual Synchronous Machine (VSM) and droop control strategies.
o Stability Analysis: Conduct frequency-domain analysis (impedance-based stability, Bode plots) to predict and mitigate potential resonance or instability issues when connecting to the grid.
o Code Implementation: Support the translation of control block diagrams into C/C++ code for DSP/FPGA implementation, ensuring the logic is optimized for real-time execution.
Validation & Vendor Support
o Hardware-in-the-Loop (HIL): Support HIL testing activities (Typhoon, Opal-RT, or RTDS) to validate control code before it touches real high-voltage hardware.
o Data Analysis: Analyze test data from SPCS supplier and field pilots, comparing real-world results against simulation baselines to identify discrepancies.
o Documentation: Create detailed engineering reports, simulation logs, and requirement traceability documents to support product certification.
Knowledge, Skills, & Abilities
To perform this job successfully, an individual must be able to perform each essential duty satisfactorily. The requirements listed below are representative of the knowledge, skill, and/or ability required. Reasonable accommodations may be made to enable individuals with disabilities to perform the essential functions.
• Inverter Controls: Proven experience developing or managing the development of vector control, droop control, and virtual synchronous machine (VSM) algorithms.
• Simulation Mastery: Advanced proficiency in MATLAB/Simulink is required. Proficiency in PSCAD or PLECS is highly preferred.
• Control Theory: Solid understanding of classical control theory (PID tuning, Bode/Nyquist stability, Phase Locked Loops - PLL).
• Power Electronics: Fundamental understanding of voltage source converters (VSC), with specific exposure to Modular Multilevel Converters (MMC) being a strong plus.
• Grid Forming: Conceptual understanding of GFM vs. GFL behaviors and the challenges of integrating inverter-based resources (IBR) into the grid.
• Coding: Familiarity with C/C++ or Python for data scripting and automated testing.
• Analytical Rigor: A personality that enjoys "debugging" physics-digging into why a simulation crashed or why a waveform looks wrong.
• Curiosity: A willingness to learn new standards (IEEE 2800) and topologies quickly under the mentorship of the Lead.
• Exceptional communication skills particularly conveying complex technical concepts or issues.
Education & Experience
• Education: Master's Degree in Electrical Engineering with a focus on Power
Electronics, Control Systems, or Power Systems. (A PhD is valuable but not required if practical experience is strong).
• Experience: 2-5 years of relevant industry or academic research experience.
• Domain: Experience with renewable energy systems (Solar/Wind/Battery), motor drives, or FACTS devices is highly desirable.
Physical Requirements & Work Environment
The physical demands and work environment characteristics described herein are representative of those that must be met by an employee to successfully perform the essential functions of this job. Reasonable accommodations may be made to enable individuals with disabilities to perform the essential functions.
• Regularly required to stand and walk, with frequent lifting or moving of up to 25 pounds and occasional lifting of up to 50 pounds.
• The noise level in the work environment is usually moderate to loud. Hearing protection may be recommended and/or required in some work locations.
• Domestic and international travel may be required.