
Battery and Accumulator Integration Course
This course will provide you with the knowledge and practical skills necessary to design, install, and maintain efficient and safe energy storage systems. You will learn everything from the fundamentals of electrochemistry to the…
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What is the Battery and Accumulator Integration Course?
The Battery and Accumulator Integration
This course will provide you with the knowledge and practical skills necessary to design, install, and maintain efficient and safe energy storage systems. You will learn everything from the fundamentals of electrochemistry to the appropriate selection of batteries for various applications, including solar systems, electric vehicles, and power backup. This program will enable you to master battery sizing, wiring, protection, and monitoring techniques, ensuring optimal performance and a long system lifespan.
Differential Advantages
- In-depth Knowledge: Master battery chemistry, battery types (Li-ion, lead-acid, etc.), and their characteristics.
- Practical Design: Learn to size batteries and storage systems for different energy needs.
- Safe Installation: Understand safety standards and best practices for battery installation and connection.
- Efficient Maintenance: Learn to monitor performance, diagnose problems, and perform preventive maintenance.
- Real-World Applications: Study successful case studies in solar systems, electric vehicles, and power backup.
Programme highlights
- Fundamentals: Master the essential principles of batteries and accumulators, from internal chemistry to modern architectures.
- Integration: Learn best practices for safe and efficient integration in various systems and applications.
- Thermal Management: Delve into advanced thermal management techniques to optimize performance and extend battery life.
- Safety: Understand the critical safety regulations and standards for handling and managing batteries.
- Maintenance: Acquire practical skills in preventive and corrective maintenance to ensure long-term reliability.
- Apply your knowledge to real projects and contributes to a sustainable energy future.
Programme Structure
The programme is structured in 5 modules, listed below in order of study.
Electrochemical fundamentals, storage technologies and functional integration of batteries and accumulators in modern electrical systems
- Electrochemical principles of energy storage: potential, capacity, energy density, specific power and charge-discharge mechanisms
- Typologies of batteries and accumulators: lead-acid, lithium-ion, LFP, NMC, nickel, sodium and emerging technologies for different applications
- Technical Parametres Selection Key: Rated Voltage, Capacity, C-Rate, Depth of Discharge, Efficiency and Expected Life
- Functional architecture of a battery system: cells, modules, racks, buses, protections and auxiliary elements of integration
- Accumulator integration applications: backup, traction, hybrid systems, self-consumption, microgrids and load stabilisation
Electrical design, modular configuration and integration of batteries with converters, charges and distribution systems
- Serial and parallel configuration of cells and modules: voltage, current, balance and design safety criteria
- Storage system sizing: autonomy, peak power, operating cycles and degradation margin
- Integration with converters and inverters: DC/AC compatibility, bidirectional converters and energy flow control
- Electrical protection of the system: fuses, contactors, switches, pre-charge, insulation and coordination of protections
- Wiring, bars, connections and electrical layout: voltage drop, heating, accessibility and safe maintenance
Battery management, monitoring, balance and intelligent control of energy performance
- Essential functions of the BMS: Voltage, Current, Temperature, Load Status and Health Status
- Cell Balancing Strategies: Passive, Active Balancing and Application Criteria According to Chemistry and System Architecture
- SOC and SOH estimation algorithms: Coulomb Counting methods, models, filters and degradation tracking
- Communication and integration of the BMS with EMS, SCADA and automation systems: protocols, alarms and data traceability
- Continuous analytical monitoring and analytical: early detection of anomalies, trends and support predictive maintenance
Safety, thermal management, operational risks and technical compliance in the integration of accumulators
- Technical and operational risks associated with batteries and accumulators: short circuit, overload, over temperature, leak and internal failure
- Thermal management of the system: passive, active cooling, HVAC, thermal gradient dissipation and control
- Thermal Runaway and Critical Events: Causes, Precursor Signals, Mitigation, Containment and Emergency Response
- Functional safety and operating procedures: interlocks, isolation, safe stop and intervention protocols
- Regulatory requirements, tests and technical validation: Acceptance criteria, documentation and evidence of conformity
Capstone Project for design, integration and validation of a battery and accumulator system for a real or simulated application
- Definition of the case study: Application Objective, Load Profile, Energy Requirements and Operational Restrictions
- Selection of technology and system architecture: Chemical, Modular Configuration, Converters and Integration Scheme
- Design of the protection system, BMS and thermal management - safety criteria, control and operational continuity
- Operation, Monitoring and Maintenance Plan: KPIs, Alarms, Inspection Routines and Life Optimisation Strategy
- Technical-economic evaluation and risk analysis: expected performance, total cost, contingencies and implementation feasibility
Study Time and Workload
300 hours of study, online and at your own pace. Move the slider to the hours a week you can really put in.
Maintenance technicians seeking to specialize in the installation and diagnosis of energy storage systems.Electrical and electronic engineers interested in the integration of batteries into renewable energy systems and electric vehicles.Photovoltaic system installers who need knowledge of storage and energy efficiency optimization.Automotive professionals focused on the electrification, desi
Academic direction and faculty
The teaching team at Navalis: working professionals who deliver and oversee the institute's programmes.








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Learning Outcomes
- 01Manage storage and transport logistics
- 02Evaluate the condition and lifespan of batteries and accumulators
- 03Apply disassembly and reconditioning techniques
- 04Comply with current environmental and safety regulations
- 05Optimize waste management and recycling
- 06Diagnose faults and perform preventive maintenance
Career Opportunities
Entry Requirements
Admissions Process
No waiting for a phone call. If your documents are complete, you can pay in the same session.
Academic/Professional Profile:Vocational training in electricity/electronics, renewable energy, or similar; or demonstrable professional experience in the installation/maintenance of electrical/energy systems.Technical Knowledge:Basic understanding of electricity, battery chemistry, and safety regulations.Documentation:Updated CV, copy of qualifications/certificates, ID card/residence permit.Skills:Ability to follow instructions, use of basic tools, attention to detail.```
Frequently Asked Questions
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