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Solar Workforce Pro

Your path to job-ready solar careers

Solar Workforce Pro is a comprehensive learning initiative for installers, O&M technicians, site supervisors, and module-line technicians. In today’s rooftop and utility-scale environment, mastering safety, installation and commissioning, SCADA monitoring, performance diagnostics, and quality/EL testing—as well as substation/protection basics and EPC procurement—is essential. This program builds core hands-on skills, practices real plant workflows (IV curve, thermography, CMMS), and develops advanced troubleshooting and documentation, offering an NSQF/SCGJ-aligned, step-by-step path to becoming a Solar Operations & Manufacturing Champion.

Why it matters

  1. Hire-ready skills: Work confidently on rooftops, plants, and client/DISCOM sites.
  2. Standards-driven: Mapped to NSQF / SCGJ Qualification Packs (Installer & O&M).
  3. Evidence-based: Every task leaves a paper (and photo) trail—exactly what employers need.
  4. Career mobility: Clear paths into Installation, Commissioning, O&M, SCADA, QA/EL, Substation/Protection, Module Manufacturing, EPC/Stores.

How Does This Work and How Will It Help You?

  1. This program is designed with cognitive science and memory retention principles, ensuring it is user-friendly and accessible anytime, anywhere. Every step fosters your growth.

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Each question or scenario offers four choices, with one correct answer. Correct answers turn green, validating your understanding, with a Know More button to explore detailed explanations, examples, and tips. Incorrect answers turn red, while the correct answer is highlighted in green.
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The Know More button explains why the correct answer is right.
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You cannot undo wrong answers but must complete the module and retry, reinforcing knowledge for better retention in future attempts.

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Simulation-based questions, real-life case studies, and quizzes for hands-on application.

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Reinforces key concepts for long-term memory retention.

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 Learn at your convenience on your computer or mobile device with a stable internet connection.

Benefits and Certification Advantages?

  • Practical impact: Survey → install → commission → operate with checklists and proof (test sheets, photos, logs).
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  • Compliance clarity: Rooftop vs utility scope, net-metering steps, CEI/CEIG touchpoints, CEA/BIS references.
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  • Two credentials: Basic (after M1-M3) · Advanced (after M4-M5 + Capstone/OJT).
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  • Verifiable: QR-coded certificates with unique ID (LinkedIn-ready); audit-friendly analytics and records.
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Who Is This Program For?
All learners (Basic)
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ITI/Diploma (EEE/EC/Mech) students & freshers, field technicians, junior engineers, career switchers.

Advanced & leads
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Site/O&M supervisors, SCADA/Monitoring, QA/EL, Substation/Protection, Module-line (lamination/EVA/EL/repair), EPC procurement & stores.

Solar Power:

Solar power is electricity made from sunlight. The most common route is photovoltaics (PV): light hits a semiconductor cell, freeing electrons and producing direct current (DC), an inverter converts that to alternating current (AC) for homes, industry, and the grid. PV wins because it’s modular (one panel to thousands), quick to install, and cost-efficient. There’s also concentrated solar power (CSP), which uses mirrors to make heat and drive a turbine-useful when thermal storage is desired-but most new capacity worldwide is photovoltaics (PV).

A quick, Engaging History

  • 1839: Edmond Becquerel observes the photovoltaic effect.
  • 1883: Charles Fritts builds the first selenium solar cell.
  • 1905-1921: Albert Einstein explains the photoelectric effect (Nobel Prize in 1921).
  • 1954: Bell Labs unveils the first practical silicon PV cell (~6% efficiency).
  • 1958-1960s: PV goes to space-satellites like Vanguard 1 prove solar’s reliability.
  • 2000s-today: Manufacturing scale and tech (PERC, TOPCon, HJT, bifacial) slash costs and lift efficiencies; PV becomes a mainstream power source on Earth, not just in orbit.

In 1839, a 19-year-old French experimenter, Alexandre-Edmond Becquerel (son of the electrochemist Antoine César Becquerel) was tinkering in his father’s Paris lab with a tiny electrochemical cell two platinum electrodes dipped in an acidic solution, one of them coated with silver chloride. He connected the cell to a galvanometer (a needle meter that twitches when current flows). Out of curiosity, he shone light onto the silver-chloride-coated electrode. The needle jumped. Dim the light needle falls. Brighten it needle rises. He had found that light could directly generate a voltage and current in matter: the photovoltaic effect.

Becquerel repeated the trials carefully changing light intensity, swapping electrodes, checking temperatures to rule out simple heating or chemical artifacts. The correlation held, illumination created an electrical response that vanished in the dark. He wrote up the results for the French Academy, showing that sunlight could be converted straight into electricity without moving parts. (This was decades before vacuum-tube photoelectric experiments or Einstein’s quantum explanation; Becquerel’s was a wet, electrochemical system, but the core idea—light → electrical power was the same breakthrough.)

Why it matters: Becquerel didn’t build rooftop panels, but he opened the door. His observation became the seed for solid-state photovoltaics (PV) a century later selenium cells in the 1880s, silicon at Bell Labs in 1954, and today’s gigawatt-scale solar farms. In classroom-speak: Becquerel showed that photons can push charges, and the world’s PV industry is the long, elegant proof of that idea at scale.

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1883 Charles Fritts and the first selenium solar cell in New York, inventor Charles Fritts coated a thin selenium wafer with a whisper-thin layer of gold,, creating a metal-semiconductor junction that produced electricity when illuminated. The device’s efficiency was tiny (well under 1%), yet it did something astonishing for its time: turn light directly into current with no moving parts. Fritts even installed experimental panels on a rooftop, proving the concept outside a lab. His selenium cells were the first glimpse of solid-state solar power a crude ancestor of modern photovoltaics (PV).

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1905 / 1921- Einstein explains the photoelectric effect (Nobel Prize 1921) Physicists knew light could knock electrons out of materials, but classical waves couldn’t explain the details. In 1905, Albert Einstein proposed that light comes in packets—quanta (photons)—and that an electron escapes only if a photon carries enough energy. This simple idea explained why brighter light isn’t enough if the color (frequency) is wrong, and why there’s no delay in electron emission. The insight reshaped physics and earned Einstein the 1921 Nobel Prize, laying the conceptual groundwork for PV: photons can deliver energy directly to electrons.

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1954 -Bell Labs and the first practical silicon PV cell (~6% efficiency) At Bell Telephone Laboratories, Daryl Chapin, Calvin Fuller, and Gerald Pearson engineered a silicon p–n junction that produced significant power under sunlight—about 6% efficiency, a leap beyond selenium. They ran a toy Ferris wheel and a radio transmitter straight from the cell to show it worked. The Bell cell was the first practical photovoltaic device: robust, reproducible, and powerful enough to matter. From that moment, silicon became the main road for solar electricity.

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1958 – 1960s - Solar leaves Earth Vanguard 1 and the space era Batteries died too quickly in early satellites, so engineers tried PV in orbit. Vanguard 1 (1958) used tiny solar cells to power its radios for years, long after its batteries were exhausted—an unmistakable proof of reliability and longevity. Through the 1960s, spacecraft adopted solar as the default power source: no fuel, no moving parts, and steady output in sunlight. Space made PV credible, accelerated improvements, and quietly funded the silicon solar industry that would later come down to Earth.

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2000s – today- today Scale, new cell tech, and the fall of cost Global manufacturing ramped, supply chains matured, and PV costs plunged. Cell architectures evolved PERC improved rear-side collection, TOPCon reduced recombination losses, HJT combined amorphous and crystalline layers for high efficiency, and bifacial modules added rear-side gain using albedo. Utility parks went gigawatt-scale, rooftops spread across cities, and PV paired naturally with batteries. The result: in many regions solar is now the lowest-cost new electricity, a mainstream pillar of power systems rather than a niche for satellites.

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Solar Power: Why It Matters

Clean local electricity:

Solar turns sunlight into power without burning fuel cutting emissions, air pollution, and water use, while tapping a resource available everywhere the sun shines.

Fast to build, easy to scale:

From a 5 kW rooftop to a gigawatt park, photovoltaics (PV) is modular. Projects can be deployed in weeks to months, not years, and expanded in stages as demand grows.

Jobs across the value chain:

Installation, commissioning, operations & maintenance, quality, design, logistics, manufacturing—solar creates hands-on careers at every skill level, exactly the roles this program prepares you for.

Good for rooftops and remote sites alike:

PV works on homes, schools, warehouses, pumps, telecom towers, and clinics bringing power to places where new lines are slow or costly, and lowering bills where the grid is strong.

Future-ready technology:

Cell architectures (PERC, TOPCon, HJT), bifacial modules, better inverters, and smarter software keep lifting efficiency and value so skills you learn today remain relevant as tech advances.

Lowest-cost new energy in many markets:

Module prices and balance-of-system costs have fallen dramatically; well-designed projects now deliver competitively priced electricity with predictable costs over 20–25 years.

Energy security and price stability:

Sunlight has no fuel price. Solar reduces exposure to imported fuels and volatile commodity cycles, giving households, businesses, and grids more stable long-term costs.

Strong partner for storage and the modern grid:

Solar pairs naturally with batteries to deliver evening power, shave peaks, and improve reliability. With smart controls (SCADA, forecasting, scheduling), it supports a resilient, flexible grid.

Measurable performance not guesswork:

Clear KPIs—Performance Ratio (PR) and Capacity Utilisation Factor (CUF)—let owners and operators track health, prove results, and improve output with data-driven O&M.

Aligned with national goals:

Solar supports targets for clean energy, industrial growth, and green jobs. Training more PV professionals accelerates safe builds, higher uptime, and better returns making the transition faster and fairer for everyone.

Do / Don’t - Being a Solar Power Champion

Solar power powers cleaner air, lower bills, and energy independence: Being a champion means you protect people, deliver performance, and leave a paper-trail that any inspector or employer can trust. Keep these Do / Don’t rules front and center.

Do

Lead with safety:

Inspect anchors/lifelines, wear PPE, apply LOTO, and use PTW no task outranks a safe task.

Build to standard:

Follow CEA/BIS/IS codes; torque, insulation, continuity, and polarity before energizing.

Label like the SLD:

Make field labels mirror the Single-Line Diagram photograph tags and routes for traceability.

Prove, don’t claim:

Capture unedited photo evidence (timestamp, asset ID, meter display) and attach to reports.

Run by the data:

Monitor PR/CUF and SCADA alarms; hunt losses with IV curves and thermography.

Close the loop:

Raise CMMS tickets, document findings, and close with RCA/CAPA so problems don’t repeat.

Respect the site:

Manage cables, earthing, and SPD cleanly leave rooftops and grounds tidy, walkways clear.

Keep learning:

Stay current on NSQF/SCGJ skills and new tech (bifacial, TOPCon, trackers, storage).

Don’t

Don’t bypass:

Interlocks, guards, or isolation to save time.

Don’t energize:

Without completed checks, sign-offs, and acceptance criteria met.

Don’t clear SCADA alarms:

Without a verified root cause and evidence of the fix.

Don’t mismatch:

Field labels and SLD names or proceed when they do not match.

Don’t submit partial dossiers:

No missing test sheets, photos, WIR/MIR, or as-builts.

Don’t guess with weather or permits:

Account for tilt/azimuth, wind, and approvals before work.

Don’t hide defects or tweak data:

Honest diagnostics today prevent bigger failures tomorrow.

Don’t leave a mess:

Offcuts, packaging, and debris are hazards — remove them before handover.

Bottom line: A Solar Power Champion delivers safe work, compliant builds, reliable performance, and clean evidence every shift, every site.

Key terms (full forms) at a glance

MMS (Module Mounting Structure):

The rails, clamps, and foundations/ballast/piles that hold PV modules at the correct tilt and direction. It keeps panels secure under wind/snow loads, ensures alignment for best energy, and meets structural/safety codes essential for both rooftops and ground-mount sites.

String / Array / Block:

A string is modules in series; strings combine into an array; arrays feed an inverter block. This hierarchy drives electrical sizing, IV testing, labelling, isolation, and fault-finding in the field.

Inverter (String/Central):

Power electronics that convert DC→AC; string inverters are many small units near arrays, central are large block units. They perform MPPT, protections, and grid-quality output—core to commissioning, monitoring, and performance.

SPD / LA / Earthing:

Surge Protective Devices, Lightning Arresters, and the grounding network that shield equipment from surges, lightning, and faults. They’re mandatory for safety/uptime and referenced in CEA/BIS inspection checklists.

IV / EL — IV-Curve & Electroluminescence:

IV tests show electrical health of strings/modules; EL is a dark-room image revealing micro-cracks and cell defects. Both underpin acceptance testing, diagnostics, and warranty claims.

Torque / Insulation / Continuity / Polarity Tests:

Standard pre-energisation checks to confirm tight terminations, insulation resistance, conductor integrity, and correct polarity. They prevent hot-spots and nuisance trips and speed CEI/CEIG clearance.

PR / CUF — Performance Ratio / Capacity Utilisation Factor:

PR measures system efficiency independent of irradiance; CUF shows delivered energy vs nameplate over time. Together they’re headline KPIs for O&M SLAs and benchmarking.

CMMS — Computerised Maintenance Management System:

The ticket and history system for preventive/corrective maintenance, spares, and SLAs. It enforces discipline, reduces MTTR, preserves evidence, and makes audits straightforward.

SCADA / DAS / RTU:

Supervisory control & visualisation (SCADA), data acquisition (DAS), and field interface (RTU) that bring plant data to screens. They enable real-time alarms, KPI/energy reporting, remote resets, and reliable operations.

SLDC / ABT / DSM:

SLDC schedules and controls the state grid; ABT is the tariff framework; DSM settles deviations from schedule. Knowing these avoids penalties and keeps utility-scale plants compliant.

CEI/CEIG — Electrical Inspectorate:

Statutory authority reviewing documentation and inspecting plants before energisation. Their approvals are required for lawful commissioning and rely on test records, drawings, and safety logs.

CEA / BIS / IS / IEC — Rules & Standards:

CEA issues grid/safety regulations; BIS/IS are Indian standards; IEC are international references. Designers, EPCs, and inspectors rely on them for equipment choice and acceptance criteria.

PPA / CTU / STU / ISTS:

Power Purchase Agreement defines sale terms; CTU/STU are transmission operators; ISTS is the inter-state network. These govern evacuation approvals, metering, billing, and commercial viability.

PSS / Bay (AIS/GIS):

Pooling Substation and its switchgear “bay” (air- or gas-insulated) where plant power is stepped up and connected to the grid. It houses metering, protection, and interlocks—central to safe evacuation.

MC4 — PV DC Connector:

The standard, weatherproof plug for PV strings enabling quick, polarity-safe, low-resistance terminations. It speeds installation, improves serviceability, and reduces contact faults.

CT / PT — Current & Potential Transformers:

Sensors that scale current/voltage for protection relays and revenue meters. They enable accurate billing (SEM/ABT) and correct relay coordination.

SLD — Single-Line Diagram:

The one-page electrical map showing sources, switchgear, protections, and interconnections. It’s the common language for design reviews, operations, isolation/LOTO, and inspections.

ITP / QAP — Inspection & Test Plan / Quality Assurance Plan:

The who-what-how and acceptance criteria for checks across construction and commissioning. They reduce NCRs, standardise quality, and speed handovers.

FAT / SAT — Factory/Site Acceptance Tests:

Proof that equipment meets specs at the factory and after installation. They catch defects early, protect warranties, and build confidence before energisation.

Soiling / Degradation / PID / LID:

Dirt build-up and ageing losses; PID (potential-induced) and LID (light-induced) are specific mechanisms. Managing these via cleaning, monitoring, and remedies restores PR and protects warranties.

SEM / ABT Meter — Special Energy Meter:

Time-stamped metering for energy and deviations under ABT/DSM. It’s the basis for commercial settlement and grid discipline.

JSA / HIRA / PTW / LOTO / WAH — Safety Toolkit:

Job Safety Analysis, risk assessment, permits to work, lock-out/tag-out, and work-at-height. They make zero-harm execution possible and are mandatory in audits.

ALMM — Approved List of Models & Manufacturers:

MNRE’s authorised PV module list for designated schemes/tenders. It affects eligibility, bankability, and procurement choices.

STC / NOCT — Module Rating Conditions:

STC is lab nameplate; NOCT reflects typical field temperatures. They drive realistic yield estimates and inverter sizing expectations.

GHI / DNI / DHI / POA — Irradiance Types:

Global, direct, diffuse, and plane-of-array irradiance used in modelling and diagnostics. They inform site selection, shading analysis, and PVsyst/HelioScope simulations.

Specific Yield — kWh per kWp:

The normalised energy metric (kWh/kWp/yr) to compare sites and O&M performance. Higher specific yield signals better design, execution, and maintenance.

BOS (Balance of System):

Everything in a plant except the modules (structures, cables, SCB/AJB/JB, inverters, transformers, protections). It completes the plant, enables safe power evacuation, protection, and metering, and is critical for a compliant, reliable installation.

SCB / AJB / JB Combiner/Junction Boxes:

Weatherproof boxes that gather strings and house fuses, SPD, shunts, and monitoring. They enable protection and measurement, neat cable routing, and fast isolation during commissioning or O&M.

DC/AC Ratio:

Installed DC kWp ÷ inverter AC kW; modest oversizing boosts morning/evening yield (with some noon clipping). It’s tuned for best LCOE while respecting thermal limits, grid codes, and owner specs.

WIR / MIR — Work/Material Inspection Requests:

Formal QA checkpoints to verify workmanship and materials against drawings and the ITP/QAP. They create the documented trail needed for handover, statutory approvals, and warranty support.

MPPT — Maximum Power Point Tracking:

Inverter/control function that keeps strings at their optimal V–I point for max energy. It improves yield across changing irradiance and temperature.

Bifacial / Albedo:

Bifacial modules harvest from both faces; albedo is ground reflectivity that boosts rear-side gain. Together they can lift energy if site layout and GCR are tuned.

Single-Axis Tracker / Backtracking / Stow:

Motorised structures that follow the sun; backtracking avoids row shading; stow is the high-wind safe posture. They increase yield but add controls and O&M needs.

PERC / TOPCon / HJT — Cell Technologies:

Modern cell architectures with higher efficiency and different degradation/temperature traits. Choosing the right tech affects PR, lifetime, and LCOE.

Temperature Coefficients (Voc/Pmax):

The % power/voltage drop per °C rise—modules produce less as they heat up. Designers use this for cable/inverter sizing and yield estimates.

Voc / Isc / Vmp / Imp — Module Electrical Points:

Open-circuit voltage, short-circuit current, and voltage/current at maximum power. They drive string sizing, inverter windows, and safety limits.

DC Isolator / String Fuse / SPD Type II–III:

The standard array-side protection and isolation trio. They enable safe maintenance, limit fault energy, and protect against transients.

AFCI — Arc-Fault Circuit Interruption:

Protection that detects arcing on DC circuits and trips safely. It’s increasingly specified to reduce fire risk on large rooftops and carports.

ANSI Relay Codes (27/59/81/50/51/67):

Numeric shorthand for protection functions (under/over-voltage, frequency, overcurrent, directional). Used in schemes and test sheets for substation/bay protection.

Cable Types (1.5 kV DC / XLPE AC):

UV-resistant DC PV cables and cross-linked polyethylene AC cables in correct class and size. Proper selection minimises losses, heating, and trips.

Metering Class (0.2s) / CT–PT Class & Burden:

Accuracy classes for revenue meters and instrument transformers. They ensure bills and DSM settlements are precise and defensible.

SMB — String Monitoring Box:

A combiner with current sensors for each string. It gives visibility for PR loss hunting, early fault detection, and targeted maintenance.

Clipping / Curtailment:

Clipping is energy lost when DC exceeds inverter AC limit; curtailment is enforced reduction by grid/dispatcher. Both are tracked to explain yield gaps.

Availability vs Reliability:

Availability is the percentage of time the plant can dispatch; reliability is freedom from failures (ties to MTBF/MTTR). Both feed SLAs and bonus/penalty regimes.

BCU — Bay Control Unit:

The controller for an AIS/GIS bay that interfaces with SCADA. It manages interlocks, commands, and event records at the substation.

GNA / LTA / MTOA / STOA Grid Access:

General Network Access and long/medium/short-term open access tenors. They define who can move how much power, for how long, across networks.

CTUIL / STU — Transmission Authorities:

Central Transmission Utility of India Ltd and State Transmission Utilities handle connectivity, bay allocation, and approvals that precede energisation.

LCOE / BoM / BoQ:

Levelised Cost of Energy over life; Bill of Materials; Bill of Quantities. These anchor budgeting, procurement, and owner decisions.

EPC / EPCM / IPP / O&M SLA:

Engineering-Procurement-Construction (build), EPC Management (owner-managed), Independent Power Producer (owns/operates), and O&M service-level agreements. The model chosen shapes scope, risk, and KPIs.

Net-Metering / Gross-Metering:

Rooftop policies where you offset your consumption (net) or sell all energy to the grid (gross). They drive economics, metering setups, and paperwork.

CFA (PM Surya Ghar):

Central Financial Assistance for residential rooftops under MNRE. It sets eligibility, subsidy amounts, and documentation—key for DISCOM dossiers.

BESS / PCS / RTC Storage & Hybrid:

Battery Energy Storage System and its Power Conversion System; Round-the-Clock supply blends solar/wind/storage. These enable firm power, shifting, and peak shaving in modern PPAs.

SCGJ QP/NOS — Skill Council for Green Jobs Standards:

Job standards (Qualification Packs) and detailed tasks (National Occupational Standards). They align training, assessments, and certificates with real roles.

NSQF - National Skills Qualifications Framework:

India’s skills level system that sets learning outcomes and certifications. It lets employers read your capability level at a glance.

Benefits & Certification Advantages

For Candidates
Job-ready skills, proven:

Hands-on training across install → commissioning – O&M (IV/insulation / torque checks, SCB/inverter start-up, SCADA basics), plus documentation that passes audits. SLD-aligned labels, WiR-MIR, photo evidence.

Two credentials that signal competence:
  • Basic Certificate (Modules 1–3): Safety, installation, commissioning fundamentals.
  • Advanced Certificate (Modules 4–5): Two specialisations – captive or OJT/BDR mapped to NSQF/SCGJ outcomes for recognised levels.
Verifiable & shareable:

QR-coded certificate (LinkedIn-ready) and digital badges for recruiters to verify instantly.

Portfolio employers trust:

Survey modes, SLD-matched labels, IV/IR test reports, PLC/PV snapshots, RCA/CAPA write-ups – evidence you can do the job from day one.

Confidence & Safety culture:

Practical drills for LOTO, PTW, JSA/HIRA reduce on-site anxiety and mistakes.

Faster interviews, better offers:

Standardised skill language (NSQF/SCGJ) shortens screening; demonstrable safety (PPE, LOTO, WAH) and process discipline stand out.

Career mobility:

Start in installation/commissioning, advance into O&M/SCADA/QA, specialise in protection or module-line manufacturing without starting over.

For Employers
Faster onboarding; lower training overhead:

Graduates already follow SLD-aligned naming, use checklists, and produce audit-ready packs less hand-holding, earlier productivity.

Safety and compliance baked in:

Candidates arrive fluent in PPE, LOTO, WAH, PTW, and aware of CEA/BIS/IS expectations fewer incidents, smoother CEI/CEIG inspections.

Measurable O&M impact:

Skill in SCADA triage, IV diagnostics, thermography, RCA/CAPA helps lift PR/CUF, cut MTTR, and avoid repeat faults.

Standardised skill signal:

NSQF/SCGJ-mapped certificates make capability legible across vendors and sites better workforce planning and vendor QA.

Traceability & audit readiness:

Graduates produce consistent WIR/MIR, torque/insulation/IV sheets with photos and instrument IDs-clean evidence for warranties and regulators.

Reduced downtime risk:

Correct pre-energisation practices (polarity, insulation, torque) and disciplined labelling/SLD alignment prevent costly errors during commissioning and switching.

Talent pipeline for growth:

Clear Basic → Advanced → Specialist pathway supports multi-site expansion without compromising quality.

For Both Sides

Mapped to real roles:

Outcomes align to SCGJ QPs/NOS (e.g., Installer—Electrical, O&M Technician), ensuring training = workplace tasks.

Verification & portability:

QR verification, unique IDs, and standard terminology make credentials portable across EPCs/O&M providers and states.

Assessment that mirrors the field:

Randomised MCQs + OSCE-style practicals (stations for IV/insulation/LOTO/SCADA) + capstone/OJT.

Continuous improvement:

Analytics on pass rates and skill gaps feed back into training plans, helping candidates upskill and employers tune on boarding.

“From Sunlight to Safe Megawatts : Learn it, Build it, Prove it.”

Build a rock-solid foundation: what a photovoltaics (PV) system is, how electricity flows (DC → AC), and how to work safely on rooftops and plant sites using PPE, LOTO, WAH and good documentation habits. This is a learn-and-practice module—explore, apply, and revisit anytime.

What you’ll learn module_book_dias

1. Solar System — Plain English: Energy vs power, voltage/current/resistance (Ohm’s law), PV modules and BOS, how strings → arrays/blocks → inverter → transformer move power, and why string vs central inverters and MPPT matter.

2. Safety First: PPE selection and fit, Lock-Out Tag-Out (LOTO) to isolate energy, Work-At-Height (WAH) with certified anchors and 100% tie-off, JSA/HIRA to spot hazards and set controls, Permit-to-Work (PTW) essentials, tool handling, and electrical-shock basics.

3. Site Etiquette & Documentation: Field labels that mirror the Single-Line Diagram (SLD), checklists that turn standards into do-confirm steps (torque, polarity, insulation), and photo evidence with timestamp/asset ID for audits and root-cause analysis.

4. Standards & Roles: How NSQF/SCGJ define job roles and competencies (installer, O&M technician), and why CEA/BIS/IS codes drive sizing, protection, tests, and records—so your work is safe, inspectable, and job-ready.

Objective module_book_dias

By the end, you can explain a PV system in simple terms, work safely using PPE/LOTO/WAH with JSA/HIRA and PTW, and use drawings, labels, checklists, and photo evidence to deliver clean, auditable work like a pro.

This module gets you hands-on with structures, wiring, and neat, code-compliant installs.

In this module, you will learn module_book_dias

1. MMS & Layout Rails, clamps, foundations/ballast, tilt/azimuth, GCR basics.

2. Stringing & Cabling MC4 terminations, DC/AC cabling, routing, earthing/SPD/LA, gland/lug/torque.

3. Boxes & Balance of System SCB/AJB/JB, combiner fuses, isolators, SMBs.

4. Rooftop to Utility Differences Net-metering dossiers vs pooling substation/bay, documentation.

Objective of this module module_book_dias

Install MMS and cabling to spec, complete WIR/MIR for quality checks, and prepare tidy, audit-ready install packs.

This module moves from first energisation to early-stage O&M so you can leave a plant running and documented.

In this module, you will learn module_book_dias

1. Pre-Energisation Tests: Torque, insulation, continuity, polarity; IV-curve basics.

2. Inverter Start-up & Handover: Parameter checks, MPPT, protection interlocks, as-builts.

3. SCADA/DAS Basics: Alarms, tags, PR/CUF dashboards; evidence screenshots.

4. Early O&M: Cleaning & vegetation SOPs, CMMS tickets, spares, first-month PR review.

Objective of this module module_book_dias

Commission safely, produce a clean handover (test sheets, photos, as-builts), and open/close O&M tickets with data-backed actions.

Deeper, role-ready skills. Pick two tracks based on your career goal.

Track 4A: O&M Diagnostics & Thermography

You’ll learn: Fault trees, PR gaps, drone/handheld IR, PID/LID symptoms, warranty/RMA, RCA/CAPA.

Outcome: Diagnose & fix performance drops; present a PR recovery case.

Track 4B: SCADA, Yield & Scheduling (SLDC)

You’ll learn: Historian tags, alarm triage, specific yield analytics, day-ahead/intraday schedules, ABT/DSM logs.

Outcome: Run a basic schedule, justify curtailment/clipping, and publish weekly KPI reports.

Track 4C: Substation, Protection & Bay Operations

You’ll learn: PSS layout, AIS/GIS bays, CT/PT, relay code basics (27/59/81/50/51), secondary injection, switching orders.

Outcome: Execute safe switching, read protection events, and prep CEI files.

Track 4D: Quality, EL/IV & Compliance

You’ll learn: ITP/QAP, sampling (AQL), EL imaging acceptance, NCR closure, FAT/SAT witness skills.

Outcome: Lead QA walks and close punch lists with evidence.

Track 4E: Design & Drafting (AutoCAD + PVsyst/HelioScope)

You’ll learn: Layouts, cable/voltage-drop, DC/AC ratio, earthing, energy modelling & losses.

Outcome: Deliver a design pack with BoM/BoQ and yield summary.

Track 4F: EPC Procurement & Stores

You’ll learn: BoM→PR→PO flow, vendor qualification, incoming QA, inventory KPIs, SERP/ERP entries.

Outcome: Keep projects moving with on-time materials and clean traceability.

Prove you’re job-ready: solve a real scenario and complete an on-site immersion.

In this module, you will learn module_book_dias

1. Capstone Case: Team project (e.g., PR dip recovery, 200-kW rooftop design & T&C, tracker fault wave).

2. On-Job Training (OJT): 60–80 hours at an EPC/O&M/DISCOM site; complete logbooks and supervisor sign-offs.

3. Assessment & Presentation: Practical OSCE stations + viva; submit a portfolio with evidence.

Objective of this module module_book_dias

Deliver a defensible, evidence-backed solution; present your portfolio (surveys, WIR/MIR, IV/insulation, EL/IR, SCADA KPIs); and earn the Advanced Certificate mapped to SCGJ outcomes.

क्यों जॉइन करें ?

  1. शुरू से अंत तक जानकारी प्राप्त करना, ट्रांसक्राइब और सत्यापित करना, और अनुरोधों का सही समापन करना।
  2. मानक चेकलिस्ट के साथ कार्यों की प्राथमिकता तय करना, समस्याओं का एस्केलेशन करना और दोहराव वाली त्रुटियाँ रोकना।
  3. गोपनीय जानकारी की रक्षा करते हुए आवश्यकताओं के अनुसार काम प्रबंधित करना।
  4. स्पष्ट रिपोर्टिंग और आपातकालीन प्रतिक्रिया के साथ स्वस्थ, सुरक्षित और संरक्षित कार्यस्थल बनाए रखना।

Question Icon
हर सवाल आपके सोचने की क्षमता के लिए चार विकल्प देता है, जिनमें से एक ही सही उत्तर होता है। यदि आपका जवाब सही रहेगा तो वह हरे रंग में बदल जाएगा, जो आपकी समझ को प्रमाणित करेगा।
Know More Icon
गलत जवाब देने पर वह विकल्प लाल हो जाता है। इसके अलावा आप "अधिक जानें" पर क्लिक कर संबंधित सवाल का विस्तृत विवरण जान सकते हैं और यह भी पता चलेगा कि यही उत्तर क्यों सही है।
Retry Icon
आप गलत उत्तर को सही नहीं कर सकते हैं मगर एक बार पूरे सवालों का जवाब देने के बाद आप दोबारा शुरू कर सकते हैं ताकि भविष्य के प्रयासों में बेहतर तरीके से ज्ञान बरकरार रख सकें।

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कार्रवाई योग्य सततता आधारित सवाल, वास्तविक जीवन की घटनाओं से जुड़े और व्यावहारिक अनुप्रयोग के लिए क्विज़।

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लंबे समय तक याद रखने के लिए प्रमुख अवधारणाओं को सुदृढ़ करता है।

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स्थिर इंटरनेट कनेक्शन के साथ अपने कंप्यूटर, मोबाइल, टैबलेट या किसी अन्य इलेक्ट्रॉनिक डिवाइस पर अपनी सुविधानुसार सीख सकते हैं।

लाभ और प्रमाणन के फायदे

  • कंटेंट उद्योग की वास्तविक अपेक्षाओं से संरेखित है, जिससे सीखना सीधे काम में उपयोगी बनता है।
  • birderCerti
  • प्रैक्टिस‑फ़र्स्ट मॉड्यूल - सिम्युलेशन, MCQ और “Know More” फ़ीडबैक - जो थ्योरी, प्रैक्टिकल और वाइवा पैटर्न से मेल खाते हैं।
  • birderCerti
  • समावेशी प्रशिक्षण डिज़ाइन जो ज़रूरत पड़ने पर स्क्रीन‑रीडर, मैग्निफ़ायर और इंडियन साइन लैंग्वेज इंटरप्रेटर का समर्थन करता है।
  • birderCerti
यह कार्यक्रम किनके लिए है
सीखने वाले और छात्र
Card Image 1

बेसिक कंप्यूटर साक्षरता वाले, जो डेटा एंट्री और डॉक्यूमेंटेशन में संरचित, प्रैक्टिस‑फ़र्स्ट शुरुआत चाहते हैं।

बैक ऑफिस और CRM टीमें
Card Image 2

असिस्टेंट और ऑपरेटर्स जिन्हें स्थिर डेटा क्वालिटी, डॉक्यूमेंटेशन और ग्राहक अपडेट की आदतें बनानी हैं।

यह मॉड्यूल ग्राहक इनपुट और सोर्स डॉक्यूमेंट को साफ़, सत्यापित रिकॉर्ड में बदलने के लिए बनाया गया है, ताकि स्पष्ट ऑडिट ट्रेल बने।

यह सीखने और अभ्यास का मॉड्यूल है, जिसमें इंटेक स्क्रिप्ट, ट्रांसक्रिप्शन ड्रिल, त्रुटि‑खोज अभ्यास और सहायक‑अनुकूल वर्कफ़्लो शामिल हैं।

इस मॉड्यूल में क्या सीखेंगेmodule_book_dias
  • ग्राहकों से सही जानकारी कैसे प्राप्त करें और शुरू करने से पहले स्कोप की पुष्टि कैसे करें।
  • कई स्रोतों से डेटा को सटीकता से ट्रांसक्राइब, स्कैन और सत्यापित करने के कदम।
  • एंट्री को सोर्स डॉक्यूमेंट से मिलान कर त्रुटियाँ तुरंत कैसे सुधारें।
  • टेक्निकल सपोर्ट तक क्या और कब एस्केलेट करें और प्रगति की जानकारी ग्राहक को कैसे दें।
  • सोर्स डॉक्यूमेंट फ़ाइल करना, बैकअप बनाए रखना और क्लोज़र रिकॉर्ड पूरे करना।
इस मॉड्यूल के उद्देश्य module_book_dias

इस मॉड्यूल के अंत तक आप:

  • इंटेक से क्लोज़र तक मानक प्रक्रिया के साथ सटीक डेटा एंट्री देना।
  • वेरिफ़िकेशन, करेक्शन और समय पर एस्केलेशन से त्रुटियाँ कम करना।
  • ऐसे स्पष्ट, पुनर्प्राप्त करने योग्य रिकॉर्ड बनाए रखना जो ऑडिट और ग्राहक भरोसा बढ़ाएँ।

यह मॉड्यूल कार्य‑योजना बनाना, गोपनीय जानकारी की सुरक्षा और टाइमलाइन पूरी करना सिखाता है, बिना गुणवत्ता से समझौता किए।

यह सीखने और अभ्यास का मॉड्यूल है, जिसमें प्रायोरिटाइज़ेशन बोर्ड, टाइम‑ब्लॉक्स, सरल ट्रैकर्स और गोपनीयता परिदृश्य शामिल हैं।

इस मॉड्यूल में क्या सीखेंगेmodule_book_dias
  • काम की आवश्यकताओं पर सहमति बनाना, कार्य‑क्रम तय करना और समय का प्रभावी उपयोग करना।
  • स्थिर आउटपुट के लिए अपना कार्य‑क्षेत्र साफ और व्यवस्थित रखना।
  • रिसोर्स और टूल्स का सही उपयोग ताकि वेस्ट और रीवर्क कम हो।
  • संगठन नीतियों के अनुरूप गोपनीय जानकारी को कैसे संभालें।
  • कब मार्गदर्शन लें और कैसे सुनिश्चित करें कि काम सहमत मानक पर खरा उतरता है।
इस मॉड्यूल का उद्देश्य module_book_dias

इस मॉड्यूल के अंत तक आप:

  • स्मार्ट प्लानिंग से समय और गुणवत्ता अपेक्षाएँ पूरी करना।
  • साफ जगह और नियंत्रित संसाधनों से पूर्वानुमेय परिणाम पाना।
  • संवेदनशील डेटा की रक्षा करना और सीमा आने पर मदद लेना।

यह मॉड्यूल रोज़मर्रा की सेफ़्टी आदतें, स्पष्ट रिपोर्टिंग और आत्मविश्वासी आपातकालीन प्रतिक्रिया विकसित करता है।

यह सीखने और अभ्यास का मॉड्यूल है, जिसमें हैज़र्ड‑स्पॉटिंग वॉक, बेसिक फ़र्स्ट‑एड जागरूकता और इन्सिडेंट‑रिपोर्ट ड्रिल शामिल हैं।

इस मॉड्यूल में क्या सीखेंगे module_book_dias
  • कार्यस्थल पर लागू स्वास्थ्य, सुरक्षा और सुरक्षा प्रक्रियाओं का पालन कैसे करें।
  • कौन‑से जोखिम आप स्वयं दूर कर सकते हैं और कौन‑से अपने अधिकार क्षेत्र से बाहर हैं, उनकी रिपोर्टिंग कैसे करें।
  • आपातकालीन प्रक्रियाएँ शांति और दक्षता से कैसे फ़ॉलो करें।
  • सुधार के सुझाव देना और सेफ़्टी रिकॉर्ड सही ढंग से भरना।
इस मॉड्यूल का उद्देश्य module_book_dias

इस मॉड्यूल के अंत तक आप:

  • सक्रिय जाँच और समय पर रिपोर्टिंग से कार्यस्थल सुरक्षित रखना।
  • आपात स्थिति में आत्मविश्वास से प्रतिक्रिया देना और घटनाओं का सही दस्तावेज़ करना।
  • व्यावहारिक सेफ़्टी सुधार सुझाकर निरंतर सुधार को समर्थन देना।