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Solar & Wind Energy with Storage for Decarbonization

Solar & Wind Energy with Storage for Decarbonization banner
Preview this course
Self-paced Beginner

Solar & Wind Energy with Storage for Decarbonization

4(12)
1 enrolled
1540 views
₹ 99
88 min
Anytime
English
1540 views
Dr Bhawani Singh Rathore
Dr Bhawani Singh RathoreRenewable Energy Coach and Consultant
  • 7-day money-back guarantee
  • Lifetime access
  • Certificate of completion

Why enroll

Our course on Renewable Energy (Solar and Wind) with ESS and Decarbonization equips you with actionable knowledge, practical skills, and cutting-edge insights to excel in the growing green energy sector. You’ll gain expertise in energy storage systems, decarbonization technologies like green hydrogen, and strategies for achieving carbon neutrality—empowering you to stay ahead in a sustainable future while opening doors to exciting career opportunities.

Is this course for you?

You should take this if

  • You work in Renewable & New Energy or Energy & Utilities
  • You're a Power Plant Engineering / Environment & Sustainability (ESG) professional
  • You prefer self-paced learning you can revisit

You should skip if

  • You need a different specialisation outside Power Plant Engineering
  • You need live interaction with an instructor

Course details

Join us for an insightful and engaging free webinar exploring the future of renewable energy. This session focuses on the integration of Solar and Wind energy with Energy Storage Systems (ESS) and advanced Decarbonization Technologies. Learn about innovative solutions, emerging trends, and actionable strategies driving the transition towards a sustainable, carbon-neutral future.

Course suitable for

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

8 lectures1 hr 28 min
  1. Introduction
    8 min
  2. Why renewable?
    9 min
  3. Various Renew Energy Sources
    13 min
  4. Various Energy Storage Systems (ESS)
    10 min
  5. Green Hydrogen Fuel
    10 min
  6. Electric Vehicles
    15 min
  7. Wind Project
    13 min
  8. Solar Project
    10 min

Opportunities that await you!

Career opportunities

Where this fits — what comes before, what comes next

Why people choose EveryEng

Industry-aligned courses, expert training, hands-on learning, recognized certifications, and job opportunities-all in a flexible and supportive environment.

What learners say about this course

Hamza Saleem
Hamza Saleem
May 3, 2026

Quick gripe first: the labs assume you’ve already got MATLAB/Simulink licenses wired up; setup notes were thin and slowed me down. That aside, our team’s been circling the same BESS arch debates for months, and this course helped ground them. Section 3.2 on AC‑ vs DC‑coupled systems stuck, especially the 15‑minute ramp example tied to inverter limits and RPS impacts. The way it linked control theory to real grid constraints felt close to prod thinking. I liked how obs was threaded into the infra discussion without hand-waving, and the CI checks on sizing calcs mirrored how we gate PRs. Not perfect, but I’m ending with fewer open questions and more confident answers around renewable-heavy energyutilities deployments.

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Henry Danjuma Kassam
May 3, 2026

Been around long enough to notice padding; this course mostly avoids it and stays focused on decisions that bite in prod. The Module 4 dispatch optimizer walkthrough, especially the 15‑min timestep SOC constraint example and the cost curve tradeoff, stuck because it maps cleanly to real ops in renewable energyutilities. From a team angle, it helps align arch conversations across infra and obs, not just getting a model to run. Wasn't sold on light treatment of safety cases and grid interop; wished there was more, but it's close to the gap between working and good.

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Harsh Lakhwani
May 3, 2026

Chapter on degradation modeling stuck—the calendar vs cycle aging worksheet with a 2C discharge and temp derating maps cleanly to sizing BESS for client calls. it's mostly practical for renewable infra, but I wasn't sold on the grid-services chapter; wished there was more on prod telemetry and obs beyond sample SCADA.

Anuj Jagadale
Anuj Jagadale Student
May 3, 2026

Not padded. Patterns from module one were already useful.

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Questions and Answers

A: Governing principle: Arresting frequency nadir depends on fast active power injection with controlled ramp rates. Applied here: The ESS can cover the inertial gap left by the rotating unit, but only if it responds early without overshoot that triggers protection. Distractor trap: Option C appeals to engineers used to protection-first thinking, but tightening UFLS worsens customer impact and hides the underlying dynamic weakness.

A: Governing principle: Environment drives corrosion mode more than duty cycle. Applied here: Marine aerosols deposit chlorides that break down passive layers on aluminum, even at moderate temperatures. Distractor trap: Option D attracts HVAC-focused engineers, but face velocities in ESS containers are rarely high enough to cause metal loss.

A: Governing principle: Energy equals power multiplied by time. Applied here: The deficit averages close to 40 MW over 5 minutes, giving 40 × (5/60) ≈ 3.3 MWh before losses. Distractor trap: Option C tempts those who double the duration without checking the actual ramp window.

A: Governing principle: Line style on single-line diagrams conveys normal operating state. Applied here: Dashed indicates normally open, aligning with ESS acting as standby support. Distractor trap: Option B catches those used to substation protection drawings where interlocks are common but shown differently.