Microgrid Certification Training Course in India
Master Microgrid Design, Solar-Wind Integration, Battery Energy Storage and Intelligent Energy Management.
Develop professional knowledge of modern microgrid systems through an eight-month comprehensive training programme covering renewable energy integration, power electronics, battery storage, microgrid control, energy management and practical engineering applications.
Programme Quick Overview & Key Details
A concise summary of the official specifications, certification credentials, and admission parameters for this programme.
Introduction to Microgrid Technology & Modern Power Systems
Explore the foundational operating principles, architectural topologies, and distributed energy mechanisms that power clean microgrids.
A microgrid is an integrated, localized energy system comprising distributed energy resources (DERs)—such as solar photovoltaic arrays, wind turbines, battery energy storage systems (BESS), and backup generation—along with interconnected electrical loads that function as a single, controllable entity with respect to the grid.
Unlike conventional centralized electricity grids where massive power plants transmit electricity across hundreds of kilometers of high-voltage transmission lines, microgrids produce and consume energy locally. This architectural paradigm eliminates substantial transmission and distribution losses, significantly enhances energy resilience, and facilitates the deep integration of intermittent renewable energy sources into modern power systems.
Conventional Utility Grid
- Centralized generation (coal, hydro, nuclear)
- Unidirectional power flow (generation to load)
- Vulnerable to cascading grid-wide blackouts
- Slow restoration and fixed passive loads
- Substantial transmission and distribution losses
Modern Microgrid
- Decentralized Distributed Energy Resources (DERs)
- Bidirectional active and reactive power flow
- Seamless islanding during utility grid outages
- Dynamic hierarchical control & Energy Management (EMS)
- Near-zero transmission losses and maximized clean fraction
Core Microgrid Architectural Classifications
1. Grid-Connected Microgrids
Operate synchronized with the main utility distribution grid. They participate in economic energy arbitrage, peak shaving, and ancillary grid support while maintaining standby readiness to decouple instantly.
2. Islanded / Autonomous Microgrids
Operate completely isolated from any external power grid, such as in remote island communities, high-altitude border outposts, or rural hamlets. Grid-forming inverters autonomously regulate voltage and frequency.
3. AC Microgrids
Utilize standard AC distribution buses (415V/11kV), allowing direct connection of standard AC industrial loads, legacy diesel generators, and utility transformers without intermediate converters.
4. DC Microgrids
Distribute DC power directly (e.g. 380V DC or 48V DC), drastically reducing multi-stage DC-AC-DC conversion losses for native DC assets: solar arrays, battery storage banks, and DC fast-charging stations.
5. Hybrid AC/DC Microgrids
The most advanced and versatile topology, featuring interconnected AC and DC sub-grids tied through bidirectional interlinking converters (ILCs). This architecture allows each generation source and load to connect to its optimal native electrical bus, delivering highest overall energy efficiency and operational flexibility.
In India, microgrids represent a transformative technological solution. With ambitious national renewable energy targets of 500 GW non-fossil capacity by 2030, microgrids serve as the critical bridge enabling massive penetration of solar and wind generation while shielding industrial facilities, critical healthcare infrastructure, and rural communities from grid instability and outages.
Why Learn Microgrid Technology? Critical Application Sectors
Discover why microgrid engineering is one of the most critical and impactful specialisations in modern power systems engineering.
Renewable Energy Integration
Understand how to buffer the intermittency of solar and wind generation using advanced power electronic converters and battery storage.
Industrial Energy Management
Help energy-intensive manufacturing plants reduce peak demand penalties, prevent brownout downtime, and monetize captive power.
Commercial Infrastructure & Tech Parks
Design microgrid solutions for corporate IT campuses and commercial buildings committed to net-zero carbon operations.
Rural Electrification & Off-Grid Hamlets
Bring reliable 24/7 power to remote villages, agricultural pumps, and primary health clinics using decentralized mini-grids.
Remote Mining & Telecom Systems
Replace expensive, logistics-heavy diesel generator transport in mining sites and telecommunication tower networks with hybrid clean energy.
Educational & University Campuses
Deploy campus microgrids that act as living engineering laboratories while drastically cutting institutional utility electricity bills.
Hospitals & Critical Healthcare
Deliver guaranteed zero-break, high-power-quality electricity for intensive care units, imaging suites, and life-support infrastructure.
Hyperscale & Edge Data Centres
Engineer high-efficiency microgrids that satisfy massive megawatt computing loads with zero tolerance for voltage sags or power interruption.
High-Power EV Charging Hubs
Mitigate severe distribution transformer overloading caused by simultaneous high-power DC fast charging through stationary BESS buffering.
Defense & Strategic Infrastructure
Ensure energy sovereignty and continuous mission readiness for high-altitude border posts, military bases, and disaster recovery centers.
About the Eight-Month Microgrid Certification Training
A specialized technical learning journey designed for aspiring engineers, technicians, and clean energy professionals.
An Eight-Month Comprehensive Engineering Trajectory
The Microgrid Certification Training programme at the Indian Institute of Solar Energy (IISE), delivered in technical collaboration with the Centre for Energy Research and Training (CERT), is designed to bridge the critical gap between conventional electrical engineering education and the modern demands of decentralized smart grids.
Over eight rigorous months, learners master the complete microgrid technology stack: from solar PV and wind generation physics, through containerized Battery Energy Storage Systems (BESS) and BMS architectures, to advanced power electronics, Voltage Source Converters (VSC), P-f / Q-V droop control, Energy Management Systems (EMS), and industrial communication protocols (IEC 61850).
The curriculum blends theoretical rigor with guided simulation exercises, technical calculation workbooks, and real-world industrial case studies, providing candidates with practical, actionable engineering competencies.
Key Educational Pillars
Programme Learning Outcomes & Engineering Competencies
Upon successful completion of the eight-month programme, learners will have demonstrated mastery of these 15 core technical competencies:
Microgrid Architectural Principles
Explain microgrid architecture, classification (AC, DC, hybrid), and operating philosophies across grid-connected and islanded modes.
Component Specification & Evaluation
Identify, specify, and evaluate microgrid balance-of-system components, power conversion equipment, switchgear, and protective relays.
Solar PV & Wind Energy Integration
Formulate and calculate solar PV and wind generation integration, capacity factors, intermittency buffering, and MPPT tracking.
BESS Architecture & Electrochemistry
Understand Battery Energy Storage System (BESS) architecture, cell chemistries (LFP, NMC), C-rates, cycle life, and thermal degradation curves.
Battery Management Systems (BMS)
Explain BMS hierarchy, cell balancing algorithms, State-of-Charge (SoC), State-of-Health (SoH), and multi-tier thermal safety protections.
Power Electronics & Converter Control
Analyze DC/DC converters, DC/AC Voltage Source Converters (VSC), pulse-width modulation (PWM), and LCL harmonic filtering schemes.
Grid-Connected & Islanded Transitions
Interpret seamless dynamic transitions between grid-connected and islanded modes, including phase-locked loop (PLL) synchronization.
Hierarchical Control Architecture
Explain primary (local droop), secondary (frequency/voltage restoration), and tertiary (economic dispatch) hierarchical control loops.
Droop Control & Autonomous Power Sharing
Understand and implement P-f and Q-V droop control principles for autonomous load sharing among multiple parallel inverters without communication lines.
Energy Management Systems (EMS)
Explain microgrid central controllers (MGCC), EMS optimization algorithms, peak-shaving routines, and demand response programs.
Load Assessment & Sizing Methodologies
Master load assessment, load profiling, coincidence factors, solar-wind generation forecasting, and comprehensive system sizing.
Performance & Techno-Economic Evaluation
Evaluate technical performance metrics (efficiency, power quality, reliability indices) and economic parameters (LCOE, CAPEX, OPEX, payback).
Electrical Protection & Power Quality
Understand bidirectional fault currents, protection coordination, anti-islanding detection schemes, harmonic distortion (THD), and voltage unbalance.
Real-World Case Study Analysis
Critically analyze commercial, industrial captive, university campus, and rural electrification microgrid case studies and SCADA datasets.
Project Engineering & Single-Line Diagrams
Formulate end-to-end microgrid project planning, Single-Line Diagrams (SLD), equipment schedules, testing protocols, and commissioning workflows.
Comprehensive Eight-Month Curriculum Roadmap
An in-depth, progressive technical curriculum covering all eight essential modules from system fundamentals to advanced microgrid operations.
Establish comprehensive mastery of microgrid definitions, evolutionary drivers, electrical architectures (AC, DC, hybrid), distributed generation resources, and fundamental network protection criteria.
Detailed Technical Topics:
- Introduction to microgrids & historical evolution of distributed power systems
- Microgrid classifications: Grid-connected, off-grid/islanded, and remote microgrids
- AC microgrids: Architecture, distribution buses, synchronization requirements, and legacy compatibility
- DC microgrids: Architectures, efficiency advantages, elimination of reactive power, and converter interfaces
- Hybrid AC/DC microgrids: Interlinking bidirectional converters (ILCs) and dual-bus topologies
- Distributed Energy Resources (DERs): Solar PV, small wind, BESS, micro-turbines, fuel cells, and cogen
- Transformers and distribution systems: Sizing, grounding practices, delta-wye configurations, and impedance
- Microgrid loads: Critical vs. non-critical loads, deferrable loads, and high-inrush motor characteristics
- Hybrid energy systems: Synergy between renewable sources, storage, and thermal dispatchable generation
- Fault tolerance and system resilience: Islanding detection criteria and network reconfiguration
- Microgrid stability: Voltage, frequency, and angle stability under variable renewable generation
- Protection fundamentals: Directional overcurrent, differential schemes, and ground fault challenges in DERs
- Techno-economic assessment: LCOE benchmarks, capital expenditure, and preliminary feasibility assessment
Technical Module Overview:
Month 1 builds the theoretical and architectural foundation required to design modern microgrids. Learners deconstruct the operational differences between conventional centralized grids and distributed microgrids. We examine AC bus topologies (415V/11kV), DC microgrid buses (380V/48V), and hybrid topologies. Special emphasis is given to fault currents, system stability, and defining critical versus shedable loads.
Guided system architecture mapping; Single-Line Diagram (SLD) deconstruction of a 500 kW facility; calculation of critical vs. non-critical load diversity factors.
Ability to evaluate site electrical requirements, select optimal microgrid bus topology (AC, DC, or hybrid), categorize facility loads, and draft preliminary electrical schematics.
Develop advanced technical expertise in solar PV array engineering, maximum power point tracking (MPPT), wind turbine power conversion, aerodynamic controls, and renewable resource forecasting.
Detailed Technical Topics:
- Solar PV technologies: Monocrystalline, PERC, TOPCon, and Heterojunction (HJT) module architectures
- PV module electrical characteristics: I-V and P-V curve behavior, temperature coefficients, and irradiance scaling
- PV strings and arrays: Series-parallel configurations, mismatch losses, bypass diode operation, and combiner boxes
- Solar PV system design: Tilt angles, azimuth optimization, row pitch spacing, and shading mitigation
- MPPT fundamentals: Perturb and Observe (P&O), Incremental Conductance, and global sweep algorithms for partial shading
- Pulse-Width Modulation (PWM) techniques: Sine PWM, Space Vector PWM, and harmonic spectrum reduction
- PV inverter integration: Central, string, and micro-inverter architectures in microgrid topologies
- Wind energy fundamentals: Betz limit, aerodynamic lift and drag, and wind resource assessment parameters
- Types of wind turbines: Horizontal Axis (HAWT) vs. Vertical Axis (VAWT); fixed-speed vs. variable-speed turbines
- Wind turbine electrical generators: Doubly-Fed Induction Generators (DFIG) and Permanent Magnet Synchronous Generators (PMSG)
- Aerodynamic power control: Pitch control, stall control, yaw systems, and cut-in/cut-out wind speeds
- Wind power curves: Power coefficient (Cp) optimization and tip speed ratio (TSR) characteristics
- Wind energy power converters: AC-DC-AC full-scale converters, back-to-back converters, and DC-link regulation
- Hybrid solar-wind systems: Complementary diurnal generation profiles and shared balance-of-system infrastructure
- Renewable generation forecasting: Numerical weather prediction, persistence models, and hourly generation profiling
Technical Module Overview:
Month 2 dives deep into the primary generation sources powering modern microgrids. Students analyze the physics and mathematical modeling of solar PV cells and wind turbines. We explore how variations in solar irradiance and wind velocity impact power output, how MPPT controllers extract peak power, and how hybrid solar-wind installations level out diurnal intermittency.
Calculation of PV string lengths under local extreme temperature limits; P-V and I-V curve parameter extraction; wind turbine energy yield modeling; diurnal solar-wind complementation analysis.
Capability to engineer solar PV strings, size wind turbine generators, evaluate MPPT performance, and compute renewable generation yields for microgrid energy balances.
Master the engineering, sizing, thermal management, degradation mitigation, and control of stationary Battery Energy Storage Systems (BESS) and Battery Management Systems (BMS).
Detailed Technical Topics:
- Introduction to stationary energy storage: Roles of BESS in frequency regulation, spinning reserve, and arbitrage
- Battery technologies: Comparison of Lithium Iron Phosphate (LFP), NMC, flow batteries, and sodium-ion systems
- Lithium-ion battery fundamentals: Intercalation physics, electrolyte reactions, and SEI layer formation
- Battery structural hierarchy: Cells, series/parallel modules, battery racks, strings, and containerized BESS enclosures
- BESS electrical architecture: DC bus voltages, disconnect switches, fuse protection, and contactor sequencing
- Battery charging and discharging protocols: CC-CV charging regimens, C-rate ratings, and depth-of-discharge (DoD) limits
- Battery Management Systems (BMS): Master-slave architecture, voltage/current/temperature telemetry sensing
- State of Charge (SoC) estimation: Coulomb counting, Open Circuit Voltage (OCV) lookups, and Extended Kalman Filters
- State of Health (SoH) and degradation: Capacity fade, internal resistance growth, cycle life vs. calendar aging
- Cell balancing mechanisms: Passive resistive balancing vs. active capacitive/inductive energy shuttle balancing
- Battery thermal management systems (BTMS): Liquid cooling, direct expansion (DX), and airflow HVAC modeling
- Battery safety and protection standards: Thermal runaway mechanisms, gas venting, deflagration mitigation (NFPA 855 / UL 9540)
- BESS capacity and power sizing: Energy-to-power (E/P) ratios, duration requirements (1-hour, 2-hour, 4-hour, 8-hour)
- Energy storage grid integration: Power Conversion System (PCS) interfacing, DC-DC buck-boost, and bidirectional inverters
- BESS control strategies: Peak shaving, time-of-use (TOU) arbitrage, ramp-rate control, and frequency response
- Droop control in storage systems: Emulating governor response and active power delivery during frequency excursions
Technical Module Overview:
Month 3 focuses on the vital storage backbone of the microgrid. Learners examine lithium-ion battery cell chemistry, pack architecture, and thermal dynamics. The module thoroughly explores BMS electronics, safe operating areas (SOA), cell balancing methods, and SoC/SoH algorithms, culminating in containerized BESS sizing for multi-megawatt applications.
Sizing a stationary BESS for peak demand shaving; BMS telemetry analysis and cell balancing calculations; estimating battery cycle life degradation across varied DoD operating profiles.
Ability to specify BESS capacity, select suitable cell chemistries, design BMS protection architectures, configure thermal management parameters, and calculate storage lifecycle economics.
Gain advanced proficiency in power electronic converters, inverter modulation, grid synchronization, power quality conditioning, and transitions between grid-tied and islanded modes.
Detailed Technical Topics:
- Power electronics fundamentals: Power semiconductor switches (IGBTs, SiC MOSFETs), conduction losses, and switching losses
- DC/DC power converter topologies: Buck, boost, buck-boost, bidirectional interleaved, and dual active bridge (DAB)
- DC/AC inverter topologies: Single-phase full-bridge, three-phase 3-leg and 4-leg inverters for neutral wire handling
- Voltage Source Converters (VSC): Operating principles, DC-link capacitor sizing, and average value modeling
- Inverter operational modes: Grid-following (current source) vs. Grid-forming (voltage source) control
- Phase-Locked Loops (PLL): Synchronous reference frame PLL (SRF-PLL), grid angle tracking, and synchronization
- Grid-connected operation: Active power (P) and reactive power (Q) control via decoupled dq-axis vector control
- Islanded autonomous operation: Voltage and frequency regulation in the absence of an infinite utility bus
- Seamless transfer and synchronization: Static Transfer Switches (STS), zero-crossing detection, and phase matching
- Distributed loads and dynamic motor starting: Voltage dip mitigation and transient current limitations
- Electric Vehicle (EV) charging integration: Level 2 AC and Level 3 DC fast-charging impacts on microgrid buses
- Power quality in microgrids: Total Harmonic Distortion (THD), IEEE 519 compliance, and voltage sag/swell mitigation
- LCL filter design: Inductor and capacitor sizing, resonance frequency calculation, and active damping techniques
- Inner current and outer voltage control loops: Proportional-Integral (PI) and Proportional-Resonant (PR) tuning
- Frequency control loops: Primary frequency response, rate of change of frequency (RoCoF), and inertial response
- Voltage regulation loops: Reactive power compensation, capacitor banks, and STATCOM functionality in microgrids
- Power flow management: Bidirectional power flow analysis across interlinking converters and distribution feeders
Technical Module Overview:
Month 4 covers the power electronics hardware and firmware that govern energy flow. Students explore the inner mechanics of Voltage Source Converters, switching algorithms, and dual dq-axis current control. We study grid-forming versus grid-following inverter paradigms, LCL filter design to suppress high-frequency switching harmonics, and static transfer switches for microsecond grid transitions.
Design and calculation of a three-phase LCL inverter output filter; tuning dq current control loop parameters; analyzing harmonic spectra under varying load power factors.
Proficiency in designing converter filter stages, configuring grid-forming and grid-following inverter controls, calculating power quality parameters, and implementing seamless islanding transitions.
Master the multi-tier hierarchical control architecture of microgrids, including decentralized droop control, centralized secondary restoration, and tertiary grid dispatch coordination.
Detailed Technical Topics:
- Microgrid control architecture: Time-scale separation, physical layers, and cyber-infrastructure interactions
- Centralized vs. decentralized control paradigms: Single points of failure vs. communication latency trade-offs
- Master-slave control: Dedicated master voltage source with slave current injectors in isolated microgrids
- Primary control level: Millisecond-scale autonomous response, zero communication reliance, and inner loop stability
- Secondary control level: Second-to-minute scale restoration of frequency and voltage deviations
- Tertiary control level: Minute-to-hour scale economic optimization, power exchange with main grid, and market bidding
- Droop control fundamentals: Physics of power transmission through inductive and resistive lines
- P-f (Active Power – Frequency) droop: Proportional frequency drop with active power generation ($f – f_0 = -m_p(P – P_0)$)
- Q-V (Reactive Power – Voltage) droop: Proportional voltage drop with reactive power export ($V – V_0 = -n_q(Q – Q_0)$)
- Virtual impedance control: Mitigating coupling between active and reactive power in low-voltage resistive lines
- Secondary frequency restoration: Centralized secondary controllers and distributed consensus-based secondary control
- Virtual Synchronous Generator (VSG) / Virtual Inertia: Emulating mechanical swing equations in inverter software
- Inverter-Based Resource (IBR) control: Low-inertia challenges, grid code compliance, and synthetic inertia delivery
- Wind and solar unit control: Active power curtailment, delta control for reserve margins, and pitch-based power control
- Storage unit control during transients: Rapid sub-second frequency support, state-of-charge balancing across BESS units
- Small-signal stability and transient response: Eigenvalue analysis, root locus, and damping of oscillatory modes
Technical Module Overview:
Month 5 addresses the brain of microgrid autonomy: Hierarchical Control. Learners deconstruct how multiple inverters share load proportionally without physical communications using P-f and Q-V droop control. We analyze secondary control algorithms that restore frequency to 50 Hz, and explore cutting-edge Virtual Synchronous Generator (VSG) algorithms that provide synthetic inertia to replace spinning mechanical generators.
Derivation and calculation of droop coefficients ($m_p$ and $n_q$) for three parallel inverters with unequal ratings; modeling secondary frequency restoration time-constants; simulating load-step responses.
Mastery in designing hierarchical control systems, computing droop gains for load sharing, configuring secondary restoration loops, and evaluating low-inertia microgrid stability.
Acquire specialized capabilities in designing, programming, and deploying Microgrid Energy Management Systems (EMS), economic dispatch algorithms, and intelligent demand-side management.
Detailed Technical Topics:
- Introduction to Energy Management Systems (EMS): Functions, supervisory scope, and interaction with SCADA
- Microgrid Central Controller (MGCC): Hardware architectures, industrial compute platforms, and redundancy
- EMS architectural frameworks: Centralized EMS vs. Distributed Agent-Based EMS (Multi-Agent Systems – MAS)
- Energy monitoring and telemetry: Real-time data acquisition, sensor networks, Modbus/DNP3 gateways, and data logging
- Human-Machine Interface (HMI) design: Real-time single-line dashboards, alarm banners, and historical trends
- Demand Response (DR) programs: Price-based and incentive-based demand response, automated load shedding
- Peak shaving strategies: Peak demand threshold setting, battery discharge scheduling, and demand charge mitigation
- Load forecasting algorithms: Time-series analysis, statistical regression, artificial neural networks, and historical profiling
- Optimal economic dispatch: Mathematical formulation of objective functions (cost minimization, emission reduction)
- Constrained optimization: Generation limits, ramp rate constraints, battery SoC boundaries, and line thermal limits
- Load balancing and phase unbalance compensation: Active power reallocation across three-phase distribution buses
- Renewable generation forecasting integration: Solar irradiation and wind speed forecasts driving 24-hour lookahead plans
- Battery dispatch optimization: State-of-Charge lifecycle preservation, round-trip efficiency accounting, and degradation cost
- Grid interaction and power purchase agreements (PPA): Net metering, gross metering, open access, and time-of-day tariffs
- Real-time control vs. Day-ahead scheduling: Rolling horizon optimization and Model Predictive Control (MPC) concepts
- Algorithmic implementations: Linear Programming (LP), Mixed-Integer Linear Programming (MILP), and rule-based heuristics
Technical Module Overview:
Month 6 transitions into the supervisory optimization layer. Students learn how the Microgrid Central Controller (MGCC) and EMS software orchestrate DERs to minimize operating costs, extend battery lifetime, and interact with the electricity grid. We analyze Mixed-Integer Linear Programming (MILP) formulations for 24-hour dispatch, peak-shaving thresholds, and automated demand response.
Formulation of an optimal 24-hour economic dispatch problem in a spreadsheet/script; setting peak-shaving dispatch thresholds against time-of-day tariffs; designing an HMI operator dashboard layout.
Capability to formulate EMS dispatch optimization problems, configure MGCC supervisory logic, design peak-shaving schedules, and interface microgrids with utility time-of-day tariff structures.
Apply end-to-end engineering workflows to assess site loads, size all microgrid generation and storage assets, prepare comprehensive Single-Line Diagrams (SLDs), and conduct engineering simulations.
Detailed Technical Topics:
- Load assessment and profiling: 8760-hour annual load profile creation, peak demand, base load, and seasonal variance
- Renewable energy resource assessment: Global Horizontal Irradiance (GHI), Direct Normal Irradiance (DNI), wind shear extrapolation
- Solar PV capacity sizing: Derating factors, DC/AC sizing ratios, temperature derating, and land/rooftop constraints
- Wind energy system sizing: Turbine selection based on IEC wind classes, hub height optimization, and wake loss analysis
- Battery storage capacity and power sizing: Autonomy hours, C-rate matching, maximum continuous discharge, and degradation margin
- Power Conversion System (PCS) and inverter selection: Overload capabilities, fault current contribution, and grid code certification
- DC and AC distribution network design: Bus voltage selection, cable sizing based on ampacity and voltage drop (<2%)
- System architecture development: Interconnection points, point of common coupling (PCC), bypass switches, and metering points
- Microgrid Single-Line Diagrams (SLD): Drafting comprehensive electrical schematics from generation to point of consumption
- Switchgear and protective equipment selection: Air circuit breakers (ACB), molded case circuit breakers (MCCB), and numerical relays
- Protection coordination fundamentals: Time-Current Characteristic (TCC) curves, relay grading margins, and bidirectional coordination
- Microgrid simulation concepts: Power flow analysis, short-circuit calculations, dynamic stability, and transient behavior
- Technical and economic feasibility evaluation: Net Present Value (NPV), Internal Rate of Return (IRR), and Simple Payback Period
- Engineering documentation packages: Bill of Materials (BOM), technical specifications, scope of work (SOW), and test procedures
- Practical design case studies: Sizing a grid-tied commercial rooftop microgrid and an isolated rural village power system
Technical Module Overview:
Month 7 synthesizes all technical disciplines into practical engineering practice. Learners walk through the complete design lifecycle of a real-world microgrid. From analyzing raw 15-minute interval smart meter data to sizing solar PV strings, selecting BESS containers, drafting full-featured Single-Line Diagrams, and calculating cable voltage drops and protective relay trip settings.
Comprehensive engineering calculation workbook: Sizing PV + BESS + Backup Gen-set for a 1.5 MVA industrial facility; drafting an end-to-end Single-Line Diagram; preparing a detailed Bill of Materials (BOM).
Ability to conduct end-to-end site resource assessments, perform load profiling, size all electrical subsystems, draft professional Single-Line Diagrams, and assemble complete project engineering packages.
Master specialized microgrid applications, industrial communication networks, cybersecurity protections, CAPEX/OPEX financial modeling, and structured commissioning testing protocols.
Detailed Technical Topics:
- Advanced microgrid applications: Heavy industrial facilities, mining sites, ports, and mission-critical chemical refineries
- Commercial and campus microgrids: Multi-building optimization, thermal cogeneration, and smart parking solar canopies
- Rural electrification microgrids: Community ownership models, prepaid metering, tariff collection, and productive use loads
- High-power EV charging microgrids: Fleet electrification, high-voltage battery buffering, and megawatt charging systems (MCS)
- Microgrid project economics: Detailed CAPEX and OPEX financial models, tax incentives, accelerated depreciation, and carbon credits
- Project feasibility and development milestones: Geotechnical surveys, permitting, grid interconnection approval processes
- Project implementation and EPC management: Procurement, civil construction, electrical installation, and safety protocols
- Operation and Maintenance (O&M): Preventive maintenance schedules, thermal imaging inspections, and BESS health tracking
- Microgrid industrial communication protocols: Modbus RTU/TCP, DNP3, and IEC 61850 (MMS, GOOSE, Sampled Values)
- Communication reliability and latency: Deterministic Ethernet, fiber optic rings, cellular fallback, and packet loss impact
- Time synchronization in smart grids: Network Time Protocol (NTP) vs. Precision Time Protocol (IEEE 1588 PTP / synchrophasors)
- Cybersecurity fundamentals for microgrids: Threat landscape, attack vectors on distributed energy resources, and air-gapping
- EMS and SCADA cybersecurity: Role-Based Access Control (RBAC), TLS encryption, firewall architectures, and IEC 62443 compliance
- Monitoring, diagnostics, and predictive maintenance: Vibration analysis on turbines, thermography, and early anomaly detection
- Factory Acceptance Testing (FAT) and Site Acceptance Testing (SAT): Cold and hot commissioning checklists and black-start testing
- Final capstone engineering project submission: Comprehensive evaluation, oral defense, and professional credential certification
Technical Module Overview:
Month 8 brings the curriculum to an advanced, industry-ready culmination. Students examine specialized microgrid topologies (industrial, defense, EV fleet depots) and study the vital cyber-physical layers: industrial communication protocols (IEC 61850, Modbus TCP), millisecond time synchronization (IEEE 1588), and OT cybersecurity according to IEC 62443 standards. The month closes with comprehensive commissioning protocols and the final capstone project submission.
IEC 61850 communication architecture mapping; cybersecurity threat matrix analysis for a utility-interconnected microgrid; developing a step-by-step Site Acceptance Testing (SAT) and black-start procedure.
Mastery in specifying industrial communication backbones, applying IEC 62443 cybersecurity safeguards, executing commissioning and black-start protocols, and leading microgrid project implementations.
Practical Training, Guided Simulations & Applied Learning
Gain practical engineering competencies through ten dedicated hands-on simulation modules, calculation workbooks, and real-world system analysis.
Microgrid System Architecture & SLD Design
Drafting complete Single-Line Diagrams (SLD), bus selection (AC/DC/hybrid), component layout, switchgear allocation, and distribution feeder design.
Solar PV & Wind Integration Studies
Simulating array tilt/azimuth output, string configuration, MPPT tracking response under passing clouds, and wind turbine power curve matching.
BESS Sizing & Pack Parameterization
Hands-on calculation of battery cell counts, series-parallel configurations, C-rate ratings, depth-of-discharge (DoD) limits, and thermal cooling loads.
BMS Telemetry & Safety Configuration
Evaluating BMS sensor telemetry, passive/active cell balancing, over-voltage/under-voltage protection thresholds, and thermal runaway warning protocols.
Power Converters & Inverter Control Loops
Tuning proportional-integral (PI) current controllers, LCL harmonic filter parameterization, and PWM modulation analysis for Voltage Source Converters.
Grid-Connected & Islanded Transitions
Step-by-step examination of static transfer switch operation, anti-islanding detection, phase-locked loop (PLL) synchronization, and black-start procedures.
Droop Control & Power-Sharing Emulation
Mathematical modeling of P-f and Q-V droop gains for parallel multi-inverter microgrids, verifying proportional load sharing without data communication.
Energy Management Systems (EMS) & Dispatch
Formulating 24-hour lookahead economic dispatch algorithms, peak-shaving schedules, demand-response routines, and battery SoC lifecycle preservation.
Microgrid System Simulation & Modeling
Conducting guided steady-state power flow, short-circuit current analysis, transient frequency excursions, and voltage stability assessments.
System Sizing, Load Profiling & Optimization
Deconstructing raw smart meter 15-minute interval datasets, calculating coincidence factors, establishing base/peak loads, and optimizing LCOE payback.
Key Microgrid Components & Technologies
Examine the 14 core electrical, mechanical, and software subsystems that constitute an integrated microgrid.
Solar PV Modules
High-efficiency photovoltaic modules converting solar irradiance into direct current (DC) power with low temperature degradation coefficients.
Wind Turbines & Converters
Aerodynamic wind energy converters equipped with active pitch regulation and power electronic interfaces for variable-speed operation.
Battery Energy Storage (BESS)
Containerized battery racks providing millisecond frequency response, bulk energy time-shifting, peak shaving, and black-start capability.
Battery Management System (BMS)
Microprocessor-based monitoring system managing cell voltages, temperatures, State-of-Charge (SoC), active balancing, and multi-tier protection.
Grid-Forming & Following Inverters
Advanced power electronic inverters capable of establishing autonomous voltage and frequency references (grid-forming) or injecting synchronized current.
Bidirectional DC/DC Converters
High-power converters interfacing low-voltage battery packs or solar arrays with high-voltage DC distribution buses with galvanic isolation.
Transformers & Distribution Switchgear
Isolation and step-up/step-down transformers designed to withstand harmonic currents while stepping voltages to 415V, 11kV, or 33kV levels.
Microgrid Central Controller (MGCC)
Industrial-grade computing controller executing secondary voltage/frequency restoration, automated islanding logic, and asset coordination.
Energy Management System (EMS)
Intelligent software platform predicting renewable generation and load demand to execute optimal economic dispatch and peak shaving.
Smart Meters & Synchrophasors (PMU)
High-precision bidirectional digital energy meters and Phasor Measurement Units delivering synchronized voltage and current phase angles.
Protection Relays & Breakers
Adaptive protection devices and high-speed circuit breakers configured to detect bidirectional fault currents and isolate faulty feeders in sub-cycles.
SCADA & Operator HMI
Human-Machine Interface dashboards providing real-time single-line status, operational logging, fault diagnostics, and historical trend analytics.
Communication Infrastructure
Resilient industrial networking backbone ensuring low-latency deterministic communication between DERs, controllers, and protective relays.
EV Charging & V2G Interfaces
Bi-directional electric vehicle chargers operating as controllable flexible loads or virtual battery storage assets via Vehicle-to-Grid (V2G) protocols.
Real-World Microgrid Deployment Sectors
Analyze how microgrids provide critical reliability, resilience, and sustainability across 11 key infrastructure sectors.
Industrial Manufacturing Plants
Continuous manufacturing facilities requiring 100% reliable captive power, demand charge mitigation, and instantaneous backup during grid disturbances.
Chemical & Process Industries
Facilities with severe safety implications during sudden power interruptions, leveraging microgrids with combined heat and power (CHP) and BESS.
Commercial Complexes & IT Parks
Tech parks and corporate campuses integrating rooftop solar PV and battery storage to fulfill corporate net-zero sustainability mandates.
Residential Communities & Micro-Utilities
Gated housing communities and eco-townships operating localized micro-utilities with shared solar-storage assets and internal billing.
Rural Electrification & Off-Grid Hamlets
Remote villages beyond the reach of the central transmission grid, empowered with reliable 24/7 solar-battery mini-grids for lighting and water pumping.
University & Educational Campuses
Large academic institutions functioning as self-contained microgrids that serve both as decarbonized living laboratories and resilient educational hubs.
Hospitals & Critical Healthcare Networks
Medical institutions requiring life-safety power reliability, where microgrids eliminate reliance on noisy, polluting diesel generator sets.
Hyperscale & Edge Data Centres
Mission-critical computing facilities utilizing high-efficiency DC microgrids and lithium-ion BESS to eliminate double-conversion UPS losses.
Telecom Tower Infrastructure
Distributed telecommunications towers across remote terrains, transitioning from costly diesel generator refueling to solar-battery hybrid systems.
Remote Island Systems & Defense Bases
Strategic military outposts, high-altitude border posts, and island territories (e.g. Andaman & Nicobar, Lakshadweep) targeting fuel independence.
High-Power EV Fleet Depots & Highway Hubs
Megawatt-scale EV bus and truck charging stations utilizing BESS buffers to prevent distribution transformer overloads during peak charging surges.
Who Should Enrol in this Microgrid Certification?
Tailored for learners, technicians, and engineering professionals seeking specialized capabilities in distributed power systems.
10+2 Pass Students
Aspiring technicians looking to enter India's high-growth clean energy engineering sector with structured, foundational technical skills.
ITI Qualified Technicians
Electricians and wiremen seeking to upskill from conventional wiring into advanced solar microgrid installation, BESS wiring, and control panels.
Electrical & Mechanical Diploma Holders
Diploma engineers looking for specialized, industry-relevant credentials in renewable integration, power electronics, and microgrid commissioning.
Engineering Graduates (B.Tech / B.E.)
Fresh electrical, electronics, and mechanical engineering graduates aiming to bridge university theory with practical microgrid design and sizing.
Electrical & Electronics Engineers
Practicing engineers looking to transition from conventional power systems or manufacturing into distributed generation and intelligent energy control.
Solar PV Installers & EPC Professionals
Solar contractors moving up the value chain from basic grid-tied rooftop solar into high-margin solar + battery hybrid microgrid installations.
Battery Technology Specialists
Professionals working in battery manufacturing and cell assembly aiming to master multi-megawatt stationary BESS deployment and BMS telemetry.
Renewable Energy Technicians & O&M Crews
Field operations technicians responsible for maintaining, troubleshooting, and optimizing operational solar and wind microgrid installations.
Power Plant & Utility Personnel
Engineers working at state utilities (DISCOMs) or conventional power plants seeking expertise in distributed energy resource interconnection.
Energy Auditors & Consultants
Energy management professionals seeking to recommend and design captive microgrid solutions for industrial clients aiming for peak shaving.
Working Professionals Seeking Transition
Engineers across IT, automotive, oil & gas, or infrastructure seeking structured weekend/evening training to pivot into the green energy economy.
Clean Energy Entrepreneurs
Business founders and system integrators planning to establish microgrid EPC companies, rural mini-grid ventures, or EV charging infrastructure.
Eligibility Criteria & Academic Pathways
The programme features an inclusive entry structure with preparatory modules to ensure candidate success.
10+2 Pass Candidates
Students with 10+2 qualifications seeking to enter the clean energy workforce. Supported with foundational electrical modules.
ITI Certificate Holders
Holders of ITI certificates in Electrical, Wireman, Electronics, and related mechanical/electrical vocational trades.
Diploma Holders
Holders of 3-year technical diplomas in Electrical, Electronics, Mechanical, or Automobile Engineering.
Science & Degree Graduates
Graduates with B.Sc, BCA, or general technical degrees seeking specialized industry credentials in renewable energy.
Engineering Graduates (B.E. / B.Tech)
Graduates in Electrical, EEE, ECE, Mechanical, Energy, or Power Engineering aiming to specialize in distributed smart grids.
Working Professionals
Practicing engineers, technicians, EPC contractors, and utility personnel working in solar, power, or industrial plants.
Potential Career Opportunities & Professional Roles
Prepare for critical technical and engineering roles in the distributed energy and renewable power systems sector.
Microgrid Technician
Executes physical installation, cable routing, switchgear wiring, and routine operational inspection of microgrid balance of systems.
Microgrid Design Assistant
Supports lead engineering teams in preparing technical proposals, equipment schedules, and electrical blueprints.
Renewable Energy Integration Engineer
Formulates engineering studies to integrate variable renewable generation into private distribution networks and utility grids.
Microgrid Operations & Maintenance (O&M) Technician
Ensures maximum system uptime, executes planned preventative maintenance, and troubleshoots operational component trips.
BESS Commissioning Technician
Specializes in on-site assembly, insulation resistance testing, and safety validation of multi-megawatt battery energy storage containers.
Battery Systems Specialist
Focuses on optimizing battery pack lifecycles, evaluating electrochemical health data, and configuring thermal safety limits.
Solar-Wind Hybrid Systems Technician
Installs and maintains hybrid clean energy installations combining solar PV arrays with small-to-medium wind generators.
Microgrid SCADA & Automation Specialist
Configures supervisory control and data acquisition networks, communication gateways, and operator monitoring dashboards.
Energy Management Systems (EMS) Assistant
Assists in programming and tuning automated energy management software algorithms for industrial and commercial microgrids.
Power Systems Protection Technician
Verifies protection relay settings, ensures bidirectional fault current tripping, and conducts loss-of-mains testing.
Clean Energy Project Coordinator
Oversees site logistics, contractor scheduling, material deliveries, and statutory compliance during microgrid installations.
Microgrid Solution Entrepreneur
Founds or expands clean-tech contracting enterprises offering turnkey microgrid, BESS, and commercial solar-hybrid solutions.
Illustrative Educational Case Studies & Real-World Projects
Analyze realistic engineering case studies reflecting diverse microgrid operational conditions across India.
Solar PV + BESS Commercial Microgrid for Peak Demand Shaving
Designed to curb peak contract demand charges during evening tariff spikes. The BESS charges exclusively from surplus mid-day rooftop solar generation and discharges at a 0.5C rate during peak utility tariff hours (18:00–22:00), reducing monthly peak demand penalties by 42% while providing critical 2-hour backup during grid feeder failures.
Solar + Wind Hybrid Island Microgrid with Desalination Load
An autonomous, isolated microgrid replacing expensive diesel generator power. Features grid-forming inverters with synthetic inertia to stabilize the island frequency. An intelligent EMS dynamically routes excess renewable generation to a flexible community water desalination plant, achieving 78% renewable fraction annually.
Industrial Captive Microgrid for Automotive Manufacturing
Engineered for an assembly facility where a 100-millisecond voltage sag causes robot cell resets. The microgrid utilizes static transfer switches (STS) and grid-forming BESS to transition seamlessly into island mode in under 8 milliseconds upon utility voltage sags, preventing multi-lakh downtime losses.
Rural Electrification Mini-Grid for 180 Off-Grid Hamlets
A decentralized community mini-grid providing 24/7 electricity to 180 rural households, a primary health clinic, and agricultural water pumps. Employs smart prepaid smart meters with GSM telemetry, allowing micro-payments and automated load prioritization during monsoon low-solar periods.
Zero-Carbon University Campus Living Laboratory
A university campus microgrid integrating 14 academic building rooftops into a centralized EMS. Serves both as an energy cost mitigation infrastructure and as an open educational research bed for power engineering students to study real-time droop control, power factor correction, and harmonic distortion.
Commercial Hospital Microgrid with Uninterrupted Life-Safety Feeder
Designed to meet stringent National Building Code healthcare power standards. The microgrid segregates life-safety medical loads (ICU, surgical suites) onto a zero-break isolated bus powered continuously by BESS through an online double-conversion architecture, with automatic gen-set start only when BESS SoC dips below 20%.
High-Power Electric Bus Depot Charging Microgrid
Addresses the massive electrical grid impact of simultaneous 240 kW fast-charging of 40 electric public transit buses. The containerized BESS absorbs high charging peaks, keeping grid intake within the approved 1.5 MVA substation limit while avoiding costly utility distribution transformer upgrades.
High-Altitude Himalayan Defense Outpost Microgrid
Operating in sub-zero ambient temperatures (-30°C) with heavy winter snowfall. Incorporates insulated containerized BESS with closed-loop glycol thermal heating, bifacial high-tilt solar panels for snow sliding and albedo reflection, reducing hazardous mountain diesel fuel convoy transport by 65%.
Why Choose the Indian Institute of Solar Energy (IISE)?
Learn with India’s specialized renewable energy educational institution.
Clean Energy Specialisation
IISE is exclusively dedicated to renewable energy, solar engineering, and advanced power systems training, ensuring high domain focus.
Institutional Partnership with CERT
Delivered in technical collaboration with the Centre for Energy Research and Training (CERT), ensuring deep academic and industrial rigor.
Unit of CERMS India Foundation
Operates under the governance of CERMS India Foundation, ensuring ethical, quality-focused vocational and technical education.
End-to-End Clean Tech Ecosystem
Gain access to adjacent specialisations across Solar PV, Battery Storage (BESS), Electric Vehicles (EV), and Energy Auditing.
Practical & Application-Oriented
Curriculum designed to translate engineering theory into practical Single-Line Diagrams, sizing calculations, and control configurations.
Flexible Distance & Online Format
Designed to allow working technicians and engineering students across India to balance their professional commitments with high-level upskilling.
Programme Certification & Completion Verification
Earn an industry-respected technical credential demonstrating your specialized microgrid engineering capabilities.
IISE + CERT Certificate + Industrial Certification
Jointly conferred by the Indian Institute of Solar Energy (IISE) and the Centre for Energy Research and Training (CERT) upon successful verification of all programme requirements.
Completion & Assessment Requirements:
* Note: This credential represents technical and professional certification from IISE and CERT. It does not confer a statutory university degree or ITI trade certificate.
Interactive Learning Methodology & Educational Journey
A structured, eight-phase pedagogical approach designed for thorough technical mastery.
Online Theoretical Instruction
Structured conceptual lectures covering microgrid physics, power electronics, and control algorithms.
Live Interactive Sessions
Scheduled online sessions with faculty for technical Q&A, deep dives, and peer discussion.
On-Demand Resource Library
24/7 access to recorded lectures, technical slides, calculation templates, and reading modules.
Guided Simulation Exercises
Hands-on walkthroughs modeling P-f droop, LCL filter harmonic response, and BESS discharge curves.
Real-World Case Studies
Deconstruction of operational SCADA telemetry from real-world C&I, campus, and rural microgrids.
Technical Sizing Assignments
Monthly engineering problem sets including string calculations, battery pack sizing, and cable schedules.
Capstone Project Submission
End-to-end design package: Single-Line Diagram, Bill of Materials, and EMS dispatch strategy.
Evaluation & Credential Award
Final technical evaluation leading to the official IISE + CERT Certificate + Industrial Certification.
Simple 5-Step Admission Journey
A transparent, enquiry-led admission process designed for hassle-free enrolment.
Submit Online Enquiry
Fill in the enquiry form with your contact details and educational background to initiate the process.
Admissions Counselling
Speak with an IISE admissions counsellor to review the programme scope, learning format, and technical fit.
Eligibility Review
Verify your academic documents (10+2, ITI, Diploma, Degree, or Professional Credentials) for enrolment.
Fee Payment Formalities
Complete the programme fee payment (₹59,999) via secure online transfer, UPI, or card payment.
Onboarding & Access
Receive your student credentials, access the digital learning platform, and begin Month 1.
Programme Fee & Payment Information
Clear, transparent pricing covering the full eight-month curriculum, guided simulations, and dual certification.
Fee Inclusions:
Explore Related Renewable Energy Programmes
Pair your microgrid training with adjacent specialisations across solar engineering, battery technology, and electric vehicles.
Institutional Perspectives & Candidate Journeys
Authentic insights reflecting candidate experiences in renewable energy and distributed systems training at IISE.
The depth of technical instruction at IISE provided the practical bridge I needed. Understanding both solar PV strings and battery storage sizing made a huge difference in my daily design engineering responsibilities.
Most college courses teach centralized power plants. Learning inverter control, P-f droop principles, and Energy Management Systems gave me domain knowledge directly aligned with smart grid developments.
The flexible online structure allowed me to study without stepping away from my plant duties. The module on peak shaving and BESS integration helped our facility evaluate a captive solar microgrid.
Frequently Asked Questions (FAQs)
Detailed, authoritative answers addressing all key aspects of the eight-month Microgrid Certification Training programme.
Microgrid Certification Training is a comprehensive, eight-month professional technical programme designed and delivered by the Indian Institute of Solar Energy (IISE) in collaboration with the Centre for Energy Research and Training (CERT). The programme provides rigorous, in-depth instruction in microgrid system architecture, solar PV and wind integration, stationary Battery Energy Storage Systems (BESS), power conversion electronics, hierarchical control (droop control), and intelligent Energy Management Systems (EMS). It equips candidates with the technical engineering knowledge and practical sizing competencies required to plan, design, commission, and operate modern distributed clean power networks.
The programme has an authoritative duration of exactly 8 Months. This structured timeframe allows learners to progress systematically through eight detailed, progressive learning blocks—starting from foundational power architecture, moving through renewable generation, battery storage, and power converters, and concluding with supervisory control, system sizing simulations, industrial protocols (IEC 61850), cybersecurity, and a comprehensive capstone project.
The total fee for the eight-month Microgrid Certification Training programme is ₹59,999. This fee is all-inclusive and covers complete access to the digital learning curriculum, live and recorded technical lecture sessions, guided simulation walkthroughs, technical assignment grading, project mentorship, and the final assessment leading to the award of the official IISE + CERT Certificate + Industrial Certification credential. Candidates can contact the admissions office for current payment and enrollment procedures.
The programme features multiple academic entry pathways and is open to: 10+2 pass candidates interested in renewable energy; ITI certificate holders (Electrical, Wireman, Electronics); Diploma holders in Electrical, Electronics, or Mechanical Engineering; Science and Technical Graduates (B.Sc, BCA); Engineering Graduates (B.E. / B.Tech in Electrical, EEE, ECE, Mechanical, or Energy); and practicing working professionals in solar, power systems, electrical contracting, or utility sectors. The programme includes foundational modules to ensure candidates from diverse educational backgrounds can follow the technical concepts effectively.
Yes. 10+2 pass candidates are eligible to enroll. The curriculum is structured progressively, starting with essential electrical concepts, DC/AC fundamentals, and component basics before introducing advanced power electronics and control loops. Candidates with 10+2 qualifications are provided with introductory learning materials to build the necessary technical foundation for microgrid technology.
Yes. ITI certificate holders—particularly those from Electrical, Wireman, Electronics, and related technical trades—are warmly welcomed. For ITI-qualified technicians, this eight-month certification provides a career-accelerating pathway to upskill from conventional domestic wiring into advanced renewable installations, high-voltage battery storage racks, inverter commissioning, and microgrid balance-of-plant maintenance.
Yes. Diploma holders in Electrical, Electronics, Mechanical, or Automobile Engineering are highly suited for this programme. The curriculum builds directly upon diploma engineering fundamentals, translating theoretical knowledge into applied engineering skills in solar-wind sizing, BESS selection, Single-Line Diagram (SLD) preparation, and supervisory control systems.
For fresh or recent engineering graduates (B.E. / B.Tech in Electrical, EEE, Mechanical, or Electronics), university curricula often cover power systems from a traditional, centralized grid perspective. This programme provides the vital missing industrial specialisation in decentralized power networks: inverter-based resources (IBRs), virtual synchronous generators, lithium-ion battery management systems, P-f / Q-V droop control mathematics, and EMS optimization algorithms, significantly enhancing technical credibility and industry readiness.
Yes. The programme is specifically architected to accommodate working professionals in the solar PV, electrical engineering, manufacturing, utility, or power plant sectors. Delivered in a flexible distance/online format with recorded lecture archives, digital technical guides, and self-paced assignment submissions, professionals can pursue comprehensive technical advancement without interrupting their existing work commitments.
The programme is delivered in a structured distance/online learning format. This includes comprehensive digital technical course materials, structured reading modules, recorded expert technical lectures, scheduled live interactive webinars and faculty doubt-clearing sessions, step-by-step guided simulation demonstrations, real-world case study evaluations, and project-based assignments. This ensures deep educational rigor accessible from anywhere across India and internationally.
The curriculum spans eight comprehensive monthly blocks: Month 1: Microgrid Fundamentals and System Architecture; Month 2: Solar PV and Wind Energy Integration; Month 3: Battery Energy Storage Systems (BESS) and BMS; Month 4: Power Electronics and Microgrid Operation; Month 5: Microgrid Control and Hierarchical Control; Month 6: Energy Management Systems (EMS); Month 7: Microgrid Design, Simulation and Practical Engineering; and Month 8: Advanced Applications, Cybersecurity and Project Implementation.
Yes, extensively. Month 2 is dedicated to solar PV and wind integration, covering photovoltaic physics, mono-PERC/TOPCon module characteristics, I-V and P-V curve behavior under varying irradiance and temperature, series-parallel string configuration, bypass diode protection, maximum power point tracking (MPPT) algorithms (P&O, Incremental Conductance), inverter integration, and solar generation forecasting.
Yes. The programme covers wind turbine fundamentals, horizontal vs. vertical axis designs, Doubly-Fed Induction Generators (DFIG) vs. Permanent Magnet Synchronous Generators (PMSG), pitch and stall aerodynamic control, power curves, tip speed ratio (TSR) optimization, back-to-back AC-DC-AC converters, and hybrid solar-wind complementation modeling.
Yes. Energy storage is a cornerstone of the programme. Month 3 focuses deeply on stationary BESS engineering, covering cell chemistries (Lithium Iron Phosphate / LFP, NMC, flow batteries), cell-to-pack hierarchy, C-rate performance, depth-of-discharge (DoD), charging regimens (CC-CV), containerized BESS enclosures, HVAC thermal cooling systems, and battery safety standards (NFPA 855 / UL 9540).
Yes. The programme thoroughly explores Battery Management Systems (BMS), including master-slave electronic hardware architectures, voltage/current/temperature sensing telemetry, State-of-Charge (SoC) estimation algorithms, State-of-Health (SoH) tracking, passive vs. active capacitive/inductive cell balancing, and multi-tier contactor trip protections.
Microgrid Energy Management Systems (EMS) constitute the intelligent supervisory software layer that orchestrates when to charge batteries, when to export power, when to shed deferrable loads, and when to dispatch backup generators. In Month 6, you will study Microgrid Central Controllers (MGCC), economic dispatch formulation, Mixed-Integer Linear Programming (MILP), peak-shaving routines, demand response, and time-of-day tariff optimization.
Yes. A central theme of the training is understanding how microgrids operate in parallel with the main utility grid (grid-connected mode, grid-following inverters) and how they disconnect to function autonomously during blackouts (islanded mode, grid-forming inverters). You will study static transfer switches (STS), Phase-Locked Loop (PLL) synchronization criteria, and black-start recovery sequencing.
Yes. Practical learning is woven throughout the eight months through ten applied areas: Single-Line Diagram (SLD) development, solar PV string calculation workbooks, BESS pack sizing, BMS telemetry parameterization, inverter LCL filter design, P-f / Q-V droop gain calculations, EMS dispatch problem formulation, guided simulation walkthroughs, industrial case studies, and a final capstone engineering design package.
Yes. In Month 7, learners conduct comprehensive load assessment using 8760-hour annual profile datasets, evaluate solar irradiance and wind velocity data, calculate required battery storage capacity and inverter power ratings, size AC/DC distribution cables for minimal voltage drop, specify switchgear and numerical relays, and analyze system power flows and economic payback metrics.
Upon successfully completing all eight curriculum modules, submitting practical assignments, and passing the final technical evaluation and capstone design submission, candidates receive the official ‘IISE + CERT Certificate + Industrial Certification’ jointly conferred by the Indian Institute of Solar Energy (a Unit of CERMS India Foundation) and the Centre for Energy Research and Training (CERT). This serves as verified institutional proof of technical competence in microgrid engineering.
Graduates are equipped for diverse technical roles across the renewable energy and power systems industry, including: Microgrid Technician, Microgrid Design Assistant, Renewable Energy Integration Engineer, Microgrid O&M Professional, BESS Commissioning Specialist, Battery Systems Technician, EMS Supervisory Assistant, and Clean Energy Project Coordinator. Actual job opportunities depend on individual educational qualifications, background, and employer-specific hiring requirements.
Applying is straightforward through a 5-step process: 1. Submit your details through the online course enquiry form; 2. An IISE admissions counsellor will contact you to review your educational background and address questions; 3. Complete your enrolment documentation; 4. Finalise the programme fee payment (accepted via online bank transfer, NEFT/RTGS, UPI, credit/debit cards); and 5. Receive your learning credentials and commence Month 1 of the Microgrid Certification Training programme.
Build Your Expertise in the Future of Distributed Energy Systems
Develop professional knowledge in microgrid technology, renewable energy integration, battery storage and intelligent energy management through IISE’s eight-month Microgrid Certification Training programme.
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