Assessment tips
- Confirm the current Adani pattern from the drive mail before practising old papers
- Finish one problem or section fully before starting the next
- Revise the fundamentals listed in the round table on this page
How Adani fresher interviews usually run, campus and off-campus. We synthesized GET and technology-track reports into a round table, outcome notes, and prep takeaways - patterns shift by business unit and year, so treat this as a prep map, not a script.
Adani placement process includes: 1. Online Assessment (90 minutes) - Coding/aptitude questions. 2. Technical Interview Round 1 (60 minutes) - Technical concepts. 3. Technical Interview Round 2 (60 minutes) - Advanced concepts and projects. 4. HR Interview (30 minutes) - Motivation and company fit. Total duration: 2-3 weeks from application to offer.
Eligibility (from student reports): 7.0+ CGPA or 70%.
Fresher package ballpark (from student reports): Analyst: ₹8-15 LPA. Confirm on your offer letter.
| Round | Duration | What they test |
|---|---|---|
| Online / Written Test | 90-160 min | Aptitude + branch domain (+ basic coding on some tech drives) |
| Async video (some GET drives) | ~30 min total | Values, intro, communication under timer |
| Technical Interview | 30-60 min | Core subjects, resume, project depth |
| HR (often same panel) | 20-30 min | Location, shifts, motivation, unit fit |
Adani hires most freshers through the Graduate Engineer Trainee (GET) route across engineering disciplines, not through a CSE-only coding drive. The public write-ups reflect that: the screening is an aptitude test with a branch-specific domain section, and the interview is a short panel conversation on your branch subjects and your resume. There is very little DSA in the reported accounts.
The most detailed public write-up is from a final-year ECE student who went through Adani’s on-campus GET drive and was selected. Four stages:
Resume screening - the shortlist was drawn before any test.
Online aptitude assessment (L&T EduTech platform)
Asynchronous video interview (Talocity)
Technical interview (MS Teams, ~40 minutes)
Outcome: selected. 17 offers were made across four engineering disciplines from that drive.
Takeaways
Individual Adani write-ups are sparse, so the rest is best read as pooled reporting rather than one person’s story:
Takeaway: for Adani, branch fundamentals plus a defensible resume matter more than contest-grade DSA. Budget real prep time for the aptitude test - it is where the 150-to-40 cut happens - and rehearse the one-way video round, which catches candidates off guard because there is no interviewer to read.
Profile: B.Tech CS/IT, eligible for GET Technology; applied via careers.adani.com when the Ahmedabad technology intake opened.
Reported stages
Outcome pattern: rolling intake; timelines vary by vertical. Takeaway: technology GET rewards timed aptitude + crisp video answers + one backend project you can whiteboard - not LeetCode hard sets.
Takeaways
Profile: Metallurgical/mechanical engineer (NIT Raipur cohort cited on GeeksforGeeks work-experience forums), selected as GET ~₹7 LPA (candidate-reported starting CTC).
Onboarding: ~1 month Mundra induction with batch of GETs; plant tours across Adani businesses in the region; probation 8 months before promotion stories to assistant-manager band (₹9 LPA in the same report - treat as one data point).
Work themes: P&ID and mechanical drawing reviews, vendor coordination, package tracking, budgeting support for a greenfield metals/plant project.
Candid pros/cons from the report: steep learning and responsibility early; ~10-hour site days and remote industrial township lifestyle - HR screens for this honestly.
Takeaway: core-branch GET interviews are about drawings, discipline, and site readiness, not DSA.
Profile: B.Tech IT/ECE, ~7.2 CGPA, strong projects, moderate contest rating.
Online assessment: tighter time pressure than practice; at least one section needed an optimized pass to stay competitive with the shortlist.
Technical + HR (combined panel): resume-led - APIs, data store choices, failure modes at fresher depth; warm-up “explain your project end-to-end.”
HR slice: why Adani, location flexibility, long-term fit in infra/energy (not generic IT services).
Result: selected after HR/managerial close. Takeaway: coherent domain + aptitude narrative beat a higher CGPA with weak explanation in this report.
Sources:
Patterns differ by campus, business unit, and year. If your college placement email says something different, follow that.
After technical rounds, Adani usually closes with a short HR / hiring-manager conversation: motivation, location, notice period, and a couple of behavioural stories. Prepare those answers on the dedicated page rather than cramming them into this hub.
Use these as frames, not scripts - interviewers probe follow-ups.
Q. Explain the Rankine cycle and where losses occur in a thermal power plant.
A. The Rankine cycle has four ideal processes: isentropic compression of feedwater in the pump, constant-pressure heat addition in the boiler and superheater, isentropic expansion through the turbine, and constant-pressure heat rejection in the condenser. Thermal efficiency is the net work divided by heat added, and it improves by raising the boiler pressure and superheat temperature or lowering the condenser pressure. Practical plants add reheat, which sends steam back to the boiler after the high-pressure turbine to reduce blade erosion from wet steam, and regenerative feedwater heating using extracted steam. Real losses come from turbine and pump isentropic inefficiency, boiler flue-gas and radiation losses, condenser terminal temperature difference, and auxiliary power consumed by fans, mills, and pumps, which is why a subcritical unit lands near 33 to 38 percent efficiency while a supercritical unit reaches the low 40s.
Q. Why does power factor matter in an industrial plant, and how is it corrected?
A. Power factor is the ratio of real power in kW to apparent power in kVA, and it equals cosine of the phase angle between voltage and current for sinusoidal supplies. Inductive loads such as induction motors and transformers draw lagging reactive power, so for the same real power the current rises, which increases I-squared-R losses in cables and transformers, causes voltage drop, and eats into transformer capacity. Utilities also levy penalties below a threshold, commonly 0.95. Correction is normally done with shunt capacitor banks sized in kVAr and switched by an automatic power factor controller, or with synchronous condensers and static VAR compensators at larger scale. Correcting from 0.75 to 0.95 cuts the current drawn by roughly 20 percent for the same load.
Q. How does a transformer work, and why can it not operate on DC?
A. A transformer works on Faraday’s law of electromagnetic induction: alternating current in the primary produces a time-varying flux in the laminated core, and that changing flux induces an EMF in the secondary proportional to its turn count, so the voltage ratio equals the turns ratio and, ignoring losses, the current ratio is its inverse. DC produces a constant flux, so the rate of change of flux is zero and no EMF is induced in the secondary; worse, the primary then presents only its small winding resistance, so the current is limited only by that resistance and the winding burns out. Transformer losses split into core losses, comprising hysteresis and eddy current losses that are roughly constant with load, and copper losses that vary with the square of load current, with maximum efficiency occurring where the two are equal.
Q. What is MPPT in a solar PV plant, and why is it needed?
A. A photovoltaic array’s power-versus-voltage curve has a single peak, and the voltage at that maximum power point shifts continuously with irradiance and, more strongly, with cell temperature, since open-circuit voltage falls by roughly 0.3 to 0.4 percent per degree Celsius. Maximum Power Point Tracking is a control algorithm inside the inverter or DC-DC converter that continuously adjusts operating voltage to sit at that peak. The common algorithms are Perturb and Observe, which nudges the voltage and keeps the direction that increased power, and Incremental Conductance, which compares incremental conductance against the negative of instantaneous conductance and handles rapid irradiance changes better. Without MPPT the array would sit wherever the load fixes its operating point and typically give up 10 to 25 percent of available energy.
Q. What is the difference between Plant Load Factor and Capacity Utilisation Factor?
A. Plant Load Factor is the actual energy generated over a period divided by the energy the plant could have generated running at rated capacity for the hours it was actually available, so it measures how hard an available plant was run. Capacity Utilisation Factor divides actual generation by rated capacity times all the hours in the period, whether the plant was available or not, so it also absorbs outages. For thermal plants the two differ mainly by planned and forced outage time. For renewables the distinction matters less because output is resource-limited: a solar plant in Gujarat or Rajasthan typically reports a CUF around 19 to 22 percent and a wind site perhaps 25 to 35 percent, and those numbers are the standard yardstick for comparing sites rather than plant health.
Assessment tips
Interview tips
HR tips
These links are research inputs we used to map GET round structure and recurring questions - not copied page mirrors. We reorganized reports into process tables, outcome notes, and prep takeaways for Adani.
Outbound candidate write-ups and references:
Cross-check the current drive mail for timings. For OA practice, see Adani placement papers.