Learn to design, simulate and analyse solar PV systems using PVsyst through practical instructor-led online training, guided project exercises and real-world solar engineering applications.
Open to Engineering Graduates, Diploma Holders & Solar Professionals. Joint certification by IISE & CERT.
Solar photovoltaic systems represent major capital investments where accurate energy forecasting is critical. PVsyst has established itself as the global engineering benchmark for solar resource assessment, near-shading analysis, and energy yield prediction.
Learn how PVsyst processes Global Horizontal Irradiation (GHI), Direct Normal Irradiation (DNI), and Diffuse Horizontal Irradiation (DHI) to model incident energy on tilted collector planes under real atmospheric conditions.
Understand the complex electrical relationships between PV module strings and inverter MPPT trackers. Verify operating voltage limits, DC/AC sizing ratios, and temperature-dependent voltage variations.
Construct realistic 3D obstruction scenes. Analyze the optical and electrical impacts of row-to-row inter-shading, parapet walls, water tanks, trees, and distant topographic horizons on solar generation.
PVsyst provides an exhaustive engineering loss diagram quantifying thermal degradation, soiling, IAM optical losses, module quality, string mismatch, DC wiring resistance, and inverter conversion losses.
Commercial and industrial solar project financiers, developers, and DISCOMs rely on detailed simulation reports to evaluate technical viability and performance ratio before capital disbursement.
Compare design alternatives systematically. Model the techno-economic performance of fixed-tilt arrays versus seasonal tilts, evaluate bifacial modules, and test string versus central inverter configurations.
Engineering Perspective: Simulation software supports rigorous engineering decisions. While PVsyst reports are widely recognized across international consulting firms, EPCs, and lending institutions for solar due diligence, acceptance depends on adherence to sound engineering assumptions rather than the software alone.
PVsyst is the industry-standard software for solar PV system simulation, used by designers, developers, and consultants on projects ranging from 1 kW rooftop installations to 100 MW utility-scale solar farms. It allows engineers to model a solar system in detail — accounting for panel layout, inverter configuration, meteorological data, shading losses, and system inefficiencies — and produce an accurate energy yield forecast. In India’s rapidly expanding solar market, where the government has set ambitious targets under MNRE’s National Solar Mission, this kind of precise simulation is not optional. It is expected.
Banks, financial institutions, and project developers require a PVsyst simulation report before approving funding for solar projects in India. Lenders want to see projected energy yield, performance ratio, and loss analysis before they commit capital. EPC contractors need it to prepare credible technical proposals. If you are designing solar systems without PVsyst proficiency, you are either outsourcing this critical step or leaving your proposals vulnerable to rejection.
Whether you work on residential rooftop solar, commercial net-metering projects, or large-scale ground-mounted installations, PVsyst is the tool that separates a rough estimate from a bankable engineering report. Learning it properly — with the right guidance — gives you the technical credibility that clients, employers, and financial institutions respect.
Solar photovoltaic systems represent major capital investments where accurate energy forecasting is critical. PVsyst has established itself as the global engineering benchmark for solar resource assessment, near-shading analysis, and energy yield prediction.
Learn how PVsyst processes Global Horizontal Irradiation (GHI), Direct Normal Irradiation (DNI), and Diffuse Horizontal Irradiation (DHI) to model incident energy on tilted collector planes under real atmospheric conditions.
Understand the complex electrical relationships between PV module strings and inverter MPPT trackers. Verify operating voltage limits, DC/AC sizing ratios, and temperature-dependent voltage variations.
Construct realistic 3D obstruction scenes. Analyze the optical and electrical impacts of row-to-row inter-shading, parapet walls, water tanks, trees, and distant topographic horizons on solar generation.
PVsyst provides an exhaustive engineering loss diagram quantifying thermal degradation, soiling, IAM optical losses, module quality, string mismatch, DC wiring resistance, and inverter conversion losses.
Commercial and industrial solar project financiers, developers, and DISCOMs rely on detailed simulation reports to evaluate technical viability and performance ratio before capital disbursement.
Compare design alternatives systematically. Model the techno-economic performance of fixed-tilt arrays versus seasonal tilts, evaluate bifacial modules, and test string versus central inverter configurations.
Engineering Perspective: Simulation software supports rigorous engineering decisions. While PVsyst reports are widely recognized across international consulting firms, EPCs, and lending institutions for solar due diligence, acceptance depends on adherence to sound engineering assumptions rather than the software alone.
PVsyst is a comprehensive engineering package designed for architects, engineers, researchers, and solar professionals to study, dimension, and simulate photovoltaic systems under diverse geographical and climatic conditions.
Unlike basic online estimation tools, PVsyst simulates hourly solar performance using comprehensive physical models, extensive verified equipment databases, and detailed loss parameters.
Coordinates, meteo data & albedo definition
Module selection, inverter sizing & strings
3D scene building & near shading table
Hourly solar yield computational engine
Decomposition of thermal, ohmic & inverter loss
Multi-page bankable documentation export
🎓 Freshers & Engineering Students
Right now: Right now, you have the theoretical knowledge but no industry-recognised software skill to show employers.
After this course: After this course, you will run full PVsyst simulations and walk into solar job interviews with a practical skill that most freshers do not have.
⚡ Working Solar Engineers & Professionals
Right now: Right now, you may be designing systems manually or relying on basic tools that do not produce the simulation depth clients expect.
After this course: After this course, you will produce accurate energy yield reports and loss analyses that meet international bankability standards.
🏗 Solar EPC Contractors
Right now: Right now, your project proposals may lack the simulation-backed technical depth that sets winning bids apart from average ones.
After this course: After this course, you will generate complete PVsyst project reports in-house — reducing third-party dependency and strengthening every proposal you submit.
📈 Energy Consultants & Auditors
Right now: Right now, you may be advising clients on energy efficiency without the solar feasibility simulation capability to back your recommendations.
After this course: After this course, you will run bankable solar feasibility studies using PVsyst. Pair this with our Energy Auditing course to offer complete audit-to-solar services.
💼 Business Owners & Entrepreneurs
Right now: Right now, you are relying on vendors or consultants to evaluate whether a solar project makes financial sense.
After this course: After this course, you will independently assess solar project viability, understand yield reports, and make informed decisions — or train your team to do the same.
Whether you are picking up PVsyst for the first time or sharpening simulation skills you already have, this course meets you where you are and takes you where the industry needs you to be.
This program is designed specifically for technical professionals, engineering graduates, and solar practitioners seeking practical simulation competence to advance their careers in solar design, project development, and consultancy.
Candidates must be engineering graduates (Electrical, Mechanical, Civil, Electronics, or Energy Engineering), diploma holders in engineering disciplines, or working professionals with relevant solar industry experience. Prior knowledge of basic electrical fundamentals is recommended.
Bridge the gap between theoretical circuit theory and commercial solar engineering. Master DC/AC system sizing, MPPT tracking windows, and inverter loading to qualify for entry-level solar design engineer roles.
Expand structural and layout knowledge into electrical energy forecasting. Understand how physical tilt, azimuth, row pitch, and shadow-casting rooftop obstacles translate directly into electrical generation losses.
Gain a practical, software-based competitive edge in the technical solar job market. Learn to independently configure rooftop solar simulations, extract loss reports, and deliver verified project documentation.
Upgrade your simulation workflows from basic estimations to detailed 3D near-shading and string-level modelling. Optimize module-to-inverter matching and eliminate performance bottlenecks in tender proposals.
Verify contractor designs, evaluate vendor equipment options with manufacturers' PAN/OND files, and ensure compliance with guaranteed specific yield and performance ratio metrics prior to procurement.
Assess site feasibility, perform resource due diligence using Meteonorm and NASA datasets, and prepare bankable generation forecasts necessary for financial modeling and institutional investor reviews.
Provide high-trust third-party technical reviews, verify developer generation claims, conduct independent energy yield assessments (EYA), and prepare comprehensive due diligence documentation for industrial clients.
Upon completing this 24-hour training program, you will possess hands-on capabilities to execute end-to-end solar PV simulation projects independently using standard engineering workflows.
Configure new project directories, define geographical coordinates, time zones, and project-specific design boundaries within the PVsyst environment.
Extract and evaluate synthetic and measured weather datasets from Meteonorm, NASA SSE, and custom site meteorological stations.
Navigate component libraries, import custom PAN and OND files, and evaluate technology differences (monocrystalline, TOPCon, bifacial).
Calculate series string sizing based on minimum and maximum temperature extremes to ensure inverter MPPT operational compliance.
Construct geometric 3D models of rooftop obstacles, parapets, surrounding structures, and multi-row ground arrays to calculate true shadow animation.
Execute full-year hourly simulations to calculate expected monthly generation (MWh), specific yield (kWh/kWp/year), and normalized production.
Interpret every tier of the PVsyst loss diagram—from irradiance and thermal losses to DC wiring resistance, mismatch, and AC ohmic losses.
Critically assess system Performance Ratio against geographical and operational benchmarks to identify performance anomalies.
Run system design variants comparing different tilt angles, row spacings, and DC/AC loading ratios to optimize project yield.
Export comprehensive, professional simulation reports ready for client presentation, tender bidding, and institutional lender evaluation.
Structured across 4 weeks with 24 hours of live instructor-led sessions, practical demonstration, guided exercises, and case-study reviews. Click each module to view detailed technical topics.
Core Focus: Mastering the software environment, file hierarchy, and fundamental computational structure.
Core Focus: Atmospheric solar resource quantification, database selection, and geographic positioning.
Core Focus: Electrical sizing, string architecture, and inverter MPPT matching.
Core Focus: Spatial array layout, shading obstruction construction, and optical loss calculations.
Core Focus: Executing simulations, analyzing monthly metrics, and benchmarking system yield.
Core Focus: Dissecting the full loss chain to eliminate inefficiencies and improve system PR.
Core Focus: Modeling commercial, industrial, and utility-scale grid-tied architectures.
Core Focus: Storage sizing, standalone autonomy, and hybrid energy balance.
Core Focus: Generating multi-page bankable reports for tenders, clients, and financial institutions.
Core Focus: Parametric optimization, data export for financial modeling, and capstone evaluation.
Master PVsyst by simulating three distinct real-world project categories. Please note: These are illustrative training case studies based on standard Indian solar installation scenarios designed to teach realistic design trade-offs.
Designed to simulate typical urban residential rooftop constraints with parapet walls, overhead water storage tanks, and stairwell shade casting.
Simulating a metal-roof manufacturing shed with dual East-West roof slopes, industrial exhaust vents, and multi-inverter array distribution.
A multi-megawatt ground-mounted plant modeling row-to-row spacing, central inverter transformer stations, and medium-voltage grid export.
Mastering technical simulation software requires more than passive video viewing. IISE implements an active, repetitive 6-stage engineering pedagogy that ensures practical competence at every step.
Theoretical grounding in solar irradiation, electrical circuit dynamics, module physics, and inverter operating parameters before opening the software.
Live, real-time software walkthrough by an experienced solar engineer demonstrating configuration workflows, setting parameters, and troubleshooting errors.
Step-by-step learner execution during the session with live trainer supervision, ensuring students configure parameters correctly on their own machines.
Independent assignment exercises using provided site coordinates and equipment datasheets to build simulation models without trainer assistance.
Critique and cross-evaluation of simulated results against real-world engineering benchmarks, identifying thermal anomalies, clipping, and excessive shading.
Dedicated interactive live Q&A sessions to resolve specific software errors, edge-case configurations, and project questions raised by learners.
Self-study videos often leave learners stranded when software errors arise, sizing parameters trigger warnings, or 3D shading calculations fail. IISE's live online training pairs you directly with experienced solar simulation professionals.
We understand that working solar professionals, site engineers, and busy graduates may occasionally miss a live lecture or need to revisit complex mathematical steps at their own pace.
Available to all enrolled students throughout the course duration and subsequent project submission period.
Each session is conducted live with your trainer, giving you real-time opportunity to ask questions, work through doubts as they arise, and learn from what other participants raise. Live classes replicate the interactive environment of a classroom — without requiring you to travel. You get direct access to the trainer’s experience with real Indian solar projects.
Every live session is recorded and uploaded to your learning portal within 24 hours. You can revisit any module, rewatch a complex workflow step by step, and study at whatever pace works around your schedule. Recordings remain accessible so you can return to the material long after the course ends.
🕑 Missed a live session? Every class recording is uploaded within 24 hours — so you never fall behind and can always catch up at your own pace.
Modern solar engineering workflows rely on different specialized software tools at different stages of project development. Understanding how these tools complement one another makes you a versatile solar engineer.
| Parameter / Feature | PVsyst Software | HelioScope Software | Google SketchUp |
|---|---|---|---|
| Primary Role | Detailed PV Simulation & Bankable Due Diligence | Cloud-Based Rapid Layout & Preliminary Simulation | 3D Spatial Architecture & Realistic Visualization |
| Simulation Engine Depth | Exhaustive (Full physical & electrical loss chain) | Moderate (Fast linear mathematical estimation) | None (Visualization only; no energy simulation) |
| 3D Modeling Approach | Near-shading CAD scene for optical calculation | Web-based satellite imagery layout placement | Full parametric 3D CAD modeling & rendering |
| Shading Analysis | Electrical string-level & module-level shading tables | Cadence-based optical shading factor maps | Solar shadow animations (visual only) |
| Lender & Bank Due Diligence | Global Benchmark for Lender Technical Reports | Accepted for preliminary proposals & commercial estimates | Used for spatial clearance & aesthetic client presentations |
| Typical Industry Stage | Detailed Engineering, Tender Submission & Financial Close | Sales Engineering, Feasibility & Fast Tender Scoping | Concept Design, Rooftop Survey & Marketing Renders |
| Official IISE Course Link | Current Course Page | View HelioScope Course → | View SketchUp Course → |
Learn how to sketch buildings in SketchUp, lay out arrays rapidly in HelioScope, and run final bankable simulations in PVsyst.
As the renewable energy sector expands across India and globally, engineering firms, IPPs, and EPC contractors actively seek engineers proficient in PVsyst simulation for key design and analytical roles.
Develop detailed technical design packages, optimize string sizing, model rooftop and ground-mounted arrays, and prepare tender drawings.
Perform energy yield assessments (EYA), run probability analyses (P50/P90), quantify shading losses, and evaluate performance ratio metrics.
Review contractor engineering submittals, verify equipment datasheets, track installation milestones, and conduct performance ratio testing.
Optimize project Bill of Materials (BOM), reduce cabling losses, ensure electrical safety compliance, and prepare as-built verification reports.
Evaluate greenfield and brownfield site feasibility, model energy revenue forecasts, and prepare documentation for project equity partners.
Provide independent engineering (IE) opinions, technical due diligence for mergers and acquisitions, and third-party audit reports.
Analyze SCADA operational data from operational solar plants against baseline PVsyst simulation models to detect performance degradation.
Offer simulation, technical audit, and project report preparation services directly to commercial clients, architects, and regional solar installers.
Professional Perspective: Proficiency in PVsyst is a widely recognized technical skill that strengthens engineering resumes and project capabilities. Employment and compensation depend on broader qualifications, interview performance, and market demand; IISE does not promise guaranteed placement or salary figures.
Upon successful completion of the 24-hour training curriculum and evaluation of your final practical simulation project, candidates receive a joint Certificate of Completion.
This is to certify that the participant has successfully completed 24 Hours of instructor-led training and project simulation in PVsyst Software.
Enrol in the complete 4-week, 24-hour PVsyst Software Training Program under our special admission window. No hidden fees or fabricated discount schemes.
Rather than displaying unverifiable testimonials, IISE believes in complete transparency regarding our training standards, project evaluation criteria, and practical learning rigor.
Students do not merely watch theoretical lectures. Every participant works with realistic site coordinates, topography constraints, and equipment datasheets to build simulation models from start to finish.
Learn how to diagnose common software calculation warnings: MPPT voltage clipping under summer extremes, excessive string resistance, uncalculated horizon shading, and invalid PAN file parameters.
Course completion certificates are awarded only after submission and faculty review of your individual capstone simulation model, ensuring demonstrable competency before credential issuance.
IISE maintains strict academic and vocational ethics. We do not publish fabricated student ratings, fake hiring numbers, or unverified placement claims. Our alumni succeed across India's renewable sector because they acquire genuine engineering capabilities.
Detailed, transparent answers to every technical, structural, and administrative question regarding the IISE PVsyst Software Training Course.
PVsyst is an industry-standard specialized software package used for the study, dimensioning, simulation, and data analysis of photovoltaic systems. It is primarily used to assess solar resources, design electrical sub-arrays, model 3D near shading, estimate monthly and annual energy generation (kWh/MWh), analyze complete system losses, evaluate Performance Ratio (PR), and produce bankable technical documentation for solar project financing and tender bidding.
The confirmed duration of the course is 4 weeks. The program is systematically structured across 10 progressive modules covering fundamentals, component configuration, 3D shading, simulation, loss analysis, and project reporting.
The program includes exactly 24 confirmed training hours comprising live instructor-led lectures, guided software walkthroughs, interactive problem solving, and case-study project reviews.
Yes. The entire training program is delivered online through live interactive virtual classroom sessions. Learners can participate from any location across India or internationally using a personal computer with internet access.
Yes. All live training sessions are recorded in high-definition and uploaded to the secure IISE student LMS portal within 24 hours. Enrolled learners receive login access to rewatch sessions, review complex modeling steps, and revise course material at their convenience.
The course is open to engineering graduates (in Electrical, Mechanical, Civil, Electronics, or Renewable Energy disciplines), diploma holders in engineering, solar design engineers, EPC project professionals, project developers, and renewable energy consultants looking to acquire verified simulation skills.
No prior experience with PVsyst is required. The curriculum begins with interface fundamentals, project directory setup, and basic navigation before advancing to complex 3D near shading and parametric optimization.
A basic understanding of general electrical principles (voltage, current, power, series and parallel circuits) and solar geometry is highly recommended, as PVsyst relies on physical and electrical principles to configure and interpret simulation models.
The curriculum covers 10 comprehensive modules: PVsyst Interface & Navigation, Meteorological Data & Site Assessment (Meteonorm, NASA), Solar PV System Configuration & Sizing, Orientation, Tilt & 3D Near Shading, Energy Yield Simulation & Production Metrics, Loss Diagram Interpretation, Grid-Connected PV Simulation, Off-Grid & Hybrid Modeling, Technical Report Generation, and Parametric System Evaluation.
Yes. Module 04 is dedicated to orientation, tilt, horizon profiling, and 3D near-shading construction. You will learn to model physical buildings, trees, parapet walls, and row-to-row spacing, compute shading tables, and evaluate linear versus electrical shading losses.
Yes. You will learn how PVsyst executes full-year 8,760-hour simulations to calculate global incident energy in the collector plane (GlobInc), effective energy (GlobEff), net energy injected into the grid (E_Grid), specific yield (kWh/kWp/year), and monthly generation distribution.
Yes. Detailed loss diagram deconstruction is a cornerstone of Module 06. You will learn to quantify irradiance losses, temperature degradation, soiling, IAM reflection, module mismatch, DC wiring resistance, inverter operational losses, and AC cabling losses.
Yes. The course includes dedicated modeling of residential and commercial rooftop solar installations, addressing rooftop tilt selection, parapet and obstacle shading, net-metering export constraints, and DISCOM documentation requirements.
Yes. Case Study B specifically analyzes a 500 kWp industrial rooftop solar project with East-West slopes, while Case Study C covers a 10 MW ground-mounted utility-scale power plant modeling row-to-row spacing, central inverters, and transformer losses.
Learners who complete the 24 hours of training and submit their capstone simulation assignment receive a joint Certificate of Completion issued by Indian Institute of Solar Energy (IISE, a Unit of CERMS India Foundation) and Centre for Energy Research and Training (CERT).
The confirmed regular tuition fee for the PVsyst Software Training Program is ₹19,999.
Under our special admission window, the discounted course fee is ₹14,999, providing a direct saving of ₹5,000 from the regular course fee.
The special admission fee of ₹14,999 is valid until 15 December 2026. Admissions completed after this date will be subject to the standard course fee of ₹19,999.
You can enrol online immediately by clicking 'Enrol Now' and completing the payment of ₹14,999 through our official Razorpay payment portal (https://rzp.io/rzp/DT3ezwyj). Alternatively, you can message our admissions team directly on WhatsApp (+91 8850902306) to confirm batch timings and receive guided enrollment assistance.
Yes. IISE offers an optional three-software career package combining PVsyst, HelioScope, and Google SketchUp for a package fee of ₹24,999 (valid until 15 December 2026). Please connect with our admissions team on WhatsApp to confirm batch schedules and enrollment terms for the bundle.
HelioScope is a cloud-based design tool optimized for rapid array layouts over satellite imagery and fast commercial proposals. PVsyst is a comprehensive engineering simulation platform that models detailed electrical physics, string-level shading, detailed loss chains, and lender due diligence reports. Both tools are widely used in the solar industry at different project stages.
Yes. Proficiency in PVsyst is one of the most frequently requested technical qualifications for solar PV design engineers, energy yield analysts, and technical due diligence consultants across EPCs and solar development companies. The skills acquired in this course enable you to deliver verified project reports that employers and clients require.
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Develop practical solar simulation skills and learn how professional PVsyst workflows support better solar project design, analysis and technical reporting.
https://indianinstituteofsolarenergy.com/courses/pvsyst-software-training-program-for-solar-engineers/