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About Tata Steel

Tata Steel is among the top global steel companies with an annual crude steel capacity of 34 million tonnes per annum. It is one of the world's most geographically diversified steel producers, with operations and commercial presence across the world. The group recorded a consolidated turnover of US $32,836 million in the financial year ending March 31, 2022. A Great Place to Work-CertifiedTM organisation, Tata Steel Ltd., together with its subsidiaries, associates, and joint ventures, is spread across five continents with an employee base of over 65,000. Tata Steel has been a part of the DJSI Emerging Markets Index since 2012 and has been consistently ranked amongst top 10 steel companies in the DJSI Corporate Sustainability Assessment since 2016. Besides being a member of ResponsibleSteelTM, worldsteel’s Climate Action Programme and World Economic Forum’s Global Parity Alliance, Tata Steel has won several awards and recognitions including the World Economic Forum’s Global Lighthouse recognition for its Jamshedpur, Kalinganagar and IJmuiden Plants, and Prime Minister’s Trophy for the best performing integrated steel plant for 2016-17. The Company, ranked as India’s most valuable Metals & Mining brand by Brand Finance, featured amongst CII Top 25 innovative Indian Companies in 2021 and top 10 sustainable organisations of India Hurun Research Institute in the 2021 Capri Global Capital Hurun India Impact 50, received Steel Sustainability Champion recognition from worldsteel for five years in a row, ‘Most Ethical Company’ award 2021 from Ethisphere Institute, RIMS India ERM Award of Distinction 2021, Masters of Risk - Metals & Mining Sector recognition at The India Risk Management Awards for the sixth consecutive year, and Award for Excellence in Financial Reporting FY20 from ICAI, among several others.

About Mind Over Matter

At Tata Steel, we believe innovation is the fundamental pre-requisite to creating futuristic solutions for our planet and people. Mind Over Matter is a one-of-a-kind platform where the brightest young minds are tested with their theoretical knowledge and practical applications under the mentorship of Tata Steel R&D team. The programme aims to boost creativity, foster a culture of cutting-edge research, and inspire them to join the manufacturing industry.

Mind Over Matter provides the opportunity to be mentored by top R&D experts at Tata Steel for a 6-month internship and an opportunity to have exposure to world-class research facilities.

ARITRA PATRA & NIHIT RAJ

NIT Jamshedpur (Winners)

ADITI SINGH & VARUN KUMAR JHA

NIT Jamshedpur (Runners-up)

PRANAV PANDEY & PRATIBHA PATEL

BIT Mesra (Winners)

ADITI SINHA & SOUMYADEEP SINGHA

BIT Sindri (1st Runners-up)

ANIRUDH ROY & SHIKHAR RANJAN

NIT Raipur (2nd Runners-up)

JYOTI

BIT Mesra, Ranchi (Winners)

RISHI RAJ & JAYA

BIT Sindri, Jharkhand (1st Runners-up)

ASHWINI KUMAR & ANISH BARANWAL

NIT Jamshedpur (2nd Runners-up)

SHREYA SINHA & ANAMIKA SINHA

BIT, MESRA, RANCHI (Winners)

NISHA SINHA & SHUBHAM SINHA

NIT, JAMSHEDPUR (1st Runners-up)

SHIVANI AGARWAL & VISHAL DWIVEDI

JADAVPUR UNIVERSITY (2nd Runners-up)

NIHARAIKA SINGH & KAYENAT FARHEEN

BIT, MESRA, RANCHI (Winners)

VENKATA RAVI TEJA

IIT, MADRAS (1st Runners-up)

SANKALP SACHDEV & KISLAY JHA

BIT, MESRA, RANCHI (2nd Runners-up)

Name College Project Title
Winners Mr Mukesh Kumar and Mr Vijay Anand IIT Kharagpur Segmented and Stacked Thermoelectric Modules for waste heat recovery during Continuous Casting.
First Runner-up Ms Priyanka Sinha and Ms Aarushee Agarwal NIT Jamshedpur Dephosphorisation of BOF slag using slag treatment and slow cooling techniques
Second Runner-up Mr Manish K Chandan and Mr Sourav Agarwal BIT Mesra, Ranchi Use of Density Gradient Centrifugation (DGC) for separation of coal macerals.
Name College Project Title
Winners Pranay Ranjan & Ambar Katyayyan IIT Jamshedpur Bio-Algal Gas Cleaning (Bio-AlGaC) System for Blast Furnace Mentor Name: Mr. Omkar Avinash Shinde
First Runner-up Amlan Baishya & Gaurav Sinha IIT Roorkee Use 3D printing technology in refractory/high temperature ceramic application
Mentor Name: Mr. Raj Kumar Prince
Second Runner-up Sandeep Prasad & Sheeraz Zama Khan NIT Jamshedpur Pre-treatment of para-magnetic minerals for effective magnetic separation
Mentor Name: Mr. Sunil Kumar Tripathy
Eligibility

The challenge is open to 1st year students of 2-year full time M.Tech course

Students of Dual degree courses (B.Tech+M.Tech) are eligible to apply. However, it applies to 4th year candidates (5-year courses)

Entries must be submitted individually or in teams of 2 participants

In case of team participation, kindly upload approval from your HOD/Dean in the attached format

All participants in a team must be from the same college

Participants must be students of the enlisted colleges –

Competition Structure

16 Jan’23 – 26 Jan’23

Short listing of entries

8th Feb'23 - 9th Feb'23

Written test and evaluation*

30 Jan’23 – 6 Feb’23

Written test and evaluation*

10th Feb Tentative

Case Presentation**

15 Feb’23 Tentative

Declaration of Top 10 teams

May’23 tentative

Internship at Tata Steel

*Technical Assessment will be based on the candidate’s domain/stream of knowledge and Tata Steel culture fit.

**Shortlisted candidates will be communicated about the technical assessment through email.

The Reward

First Stage

Top 10 teams to get 6 months internship opportunity

Stipend during internship

Certificate of internship

Final Stage

  • Winner: ₹1,00,000 + Trophy + Certificate + PPO*
  • 1st Runner Up: ₹ 75,000/- + Certificate + PPO*
  • 2nd Runner Up: ₹ 50,000/- + Certificate + PPO*
  • 4th to 10th ranking teams: PPI to be offered

Note

A Pre-placement Interview (PPI) offer means that a student would not go through any shortlisting process and would directly appear in the Job interview.

*PPO for Management Trainee R&T (at cadre entry level)

Rules
  1. Topics of research is open to 1st year students of 2-year full time M.Tech course and students of Dual degree courses (B.Tech+ M.Tech) where it applies to 4th year candidates (5-year courses).
  2. Entries must be submitted individually or in teams of 2 participants. In case of team participation, kindly upload approval from your HOD/Dean in the attached format.
  3. Each team comprises 2 members, but if only 1 member in a team of 2 is mentioned in the entry, then it will be considered as a 1-member team entry.
  4. All participants in a team must be from the same college.
  5. Entries should be submitted in .pdf or .ppt files in provided presentation template link Max file size allowed up to 2 MB only.
  6. All entries must be the original creation of the participants.
  7. Entries with plagiarized content will be disqualified.
  8. Incomplete entries will not qualify.
  9. No entries will be accepted after the final submission date.
  10. A weightage of 70 (on Mentors ‘rating) and 30 (Technical test) will be considered to identify the Top 10 teams. In case of team participation, the average score of team members will be considered for calculation of score.
  11. Participants must declare in case of any relation with any employee of Tata Steel (if there).
  12. Based on the submission, top teams would be offered (6 months) internship.
  13. Internship programme cannot be exchanged for cash rewards.
  14. A final evaluation would be done at the end of the internship and basis that, the top three teams would be rewarded.
  15. A Pre-placement offer means that a student would not go through any shortlisting process and would directly be offered a job.
  16. The decision of the Jury shall be final, conclusive and binding and no contestation will be accepted.
Prizes

Top 3 winner for the Codathon to be declared. (1st Prize, 1st runners up and 2nd runners up)

Confirmed offer at Fidelity International for Top 3 Winners.

How to Register
Workflow

Registration on Portal

Invite Team member if any

Submit Idea PPT+ HOD approval in zip

Team
Shortlisted

Attempt
Written Test

Get
Shortlisted

Internship & Mentoring

Problem Statement
  • Problem Statement 1:
    High value carbon products from coal tailings
    In order to achieve the concept of circular economy in coal washery, value addition of tailings generated from fines circuit as a by-product is of concern. These are sub bituminous coking coal having a particle size of less than 0.5 mm and an ash percentage of 40-45 wt. %. Searching for an economically viable methodology to convert these fines into value added products such as carbon nano dots and carbon fiber, Bio-methanation, activated carbon, etc.
    Mentor:
    Anurag Shakya
    anurag.shakya@tatasteel.com
  • Problem Statement 2:
    Novel method for classification of coal fines of <0.25mm
    The coal beneficiation process requires efficient separation of <0.25 mm. The coal having size less than 0.25 mm should be less than 10 % in the feed otherwise it puts froth difficulties in the existing coal processing plants. The conventional size separation techniques are not very efficient in the fines separation and the misplacement of finer size particles in the coarser part (particles less than 0.25mm in stream containing 0.25mm to 0.5mm)can go up to 30%. The challenge here is to develop a scalable separation process for particles at sizes near around 0.25mm with minimum misplacement (less than 10%) of finer particles to the coarser side.
    Mentor:
    Sachinraj D
    Sachinraj.D@tatasteel.com
  • Problem Statement 3:
    Alternate materials for blast furnace copper tuyeres to stop premature failure
    Tuyere is one of the integral components of the blast furnace as it facilitates the injection of preheated blast into the furnace for combustion of the coke. Tuyeres are made of high purity copper and are water-cooled to ensure effective heat extraction. These copper tuyeres are exposed to temperature up to 2000 °C (direct liquid metal contact), erosion from fine pulverized coals, corrosion and oxidation in environment containing chloride and sulphide ions. This extreme environment causes premature failure of tuyeres reducing the service life and loss in terms of productivity. This is a chronic problem faced by integrated steel plants globally and we seek innovative idea or alternate material to mitigate this concern.
    Mentor:
    Kaushal Kishore
    kaushal.kishore3@tatasteel.com
  • Problem Statement 4:
    Fabrication of Cellular porous/ iron foam using iron powder
    The technology of designing porous metallic foam is evolving at a rapid pace. This research area is interdisciplinary and requires chemistry, physics and materials engineering to be applied jointly to develop integrated solutions that ensure that these materials can be produced economically with the required quality and reproducibility and that their integration into engineering components. Metallic foams are considered important for functional applications like filters, shock absorbers in automobiles, catalysts carrier, heat exchangers, flame arrestors etc. Iron based foams have been considered as an alternative material to aluminum foams, because steel has higher strength, higher capability to absorb energy and is generally cheaper than aluminum. However, steel have high density than aluminum, and its much higher melting temperature makes low-cost production of foams a challenge. A metal foam is advantageous from a 3-D skeleton and providing abundant active metal sites and is considered crucial also for developing an economical and highly efficient water splitting electrocatalyst. The invention deals with the idea to fabricate pure metallic iron foams using various grades of iron powders (with different size and morphology of powders). Searching a path breaking idea which can enable production of iron foam with a porosity of ~50% and average pore diameter ~ 500 um.
    Mentor:
    Abhijeet Premkumar Moon
    abhijeet.moon@tatasteel.com
  • Problem Statement 5:
    Cost effective alternative of lime/limestone as a fluxing agent in BOF (Basic Oxygen Furnace) steelmaking process
    Lime/limestone is very an important and cheaper material available on the earth so far as a fluxing agent for hot metal dephosphorization in BOF process. Addition of lime/limestone during BOF process helps in formation of slag, maintaining the required basicity, improving refining and prevents refractory wear. Production of 1 Ton of crude steel in BOF process requires approximate 55-65 kg of lime depending on hot metal quality and plant practice. As steel production in India is witnessing a significant growth, the requirement of lime/limestone will increase commensurately leading to the depletion of natural resource. We are searching for a novel fluxing agent to replace lime/limestone,which are economically feasible and readily available for the use.
    Mentor:
    Prakash Gupta
    prakash.gupta3@tatasteel.com
  • Problem Statement 6:
    Efficient Perovskite solar cells
    Perovskite solar cells have shown remarkable progress in recent years with rapid increases in efficiency. However still it is challenging to make high efficiency Perovskite solar cells mainly due to (i) Perovskites decompose when they react with moisture and oxygen and exposed to light/ hea which limits its stability. (ii) Producing uniform, high-performance perovskite material in a large-scale manufacturing environment is difficult. (iv) Set up a Quality and performance testing protocol. Therefore, we are inviting proposal to develop efficient (>25%) Perovskite solar cells with a minimum 20 year life with a suitable performance testing/ simulation method.
    Mentor:
    Nemai Chandra Gorain
    nemai@tatasteel.com
  • Problem Statement 7:
    Steels for the Hyperloop
    Harmful emissions from transport have doubled in the last fifty years. There is an increasing demand to reduce the emissions from public transportation. In this context, a promising concept called the Hyperloop proposed by Elon Musk (Musk, 2013) has the potential to solve this problem in a faster and more sustainable manner. The draft report has identified steel is the most suitable material for the loop. However, there are challenges in using the steel for Hyperloop. The tube is continuous, hence low thermal expansion is required in operating conditions, specifically in India. Therefore, the challenge here is to develop steel for hyperloop with low thermal expansion besides good damping capacity. The work involves fundamental study to understand the effect of alloying additions in reducing thermal expansion using first-principal models and developing alloys at laboratory or pilot scale to evaluate the properties.
    Mentor:
    Appa Rao Chintha
    apparao@tatasteel.com
  • Problem Statement 8:
    Online measurement of multilayer coating thickness on colour coated steel sheets
    In cold rolling mills, Colour coated GI sheets are produced with the polymer-based coatings of primer and paint with the thickness of (5 -7) µm and (15-20) µm, on the top side, and of (5-7) µm and (7-8) µm on the bottom side, respectively. Online measurement of the coating thickness measurement is very important in terms of quality assurance and optimum utilisation of coating material. The system is expected to be Non-Destructive and online (excluding radiation-based technology), where the line speed is 150 metre per minute and the minimum expected accuracy in terms of resolution is 1 µm.
    Mentor:
    Keerthana George
    keerthana.george@tatasteel.com
  • Problem Statement 9:
    Online phase fraction estimation of DP steel before cooling zone of a furnace
    The production of modern Dual Phase steel (DP) places high demands on the thermal process in annealing and hot-dip galvanizing lines. In particular, automotive industry mandates homogeneous properties of the steel strips from coil to coil and along the entire length of each coil. Such homogenous material can only be produced with the feedback from an online measurement system for microstructure. Processed DP grades consist of two or more microstructure phases to obtain the required material properties. During the heat treatment, the fraction of austenite in front of the rapid cooling determines the amount of secondary, hard phases formed during subsequent cooling stages. In DP, the secondary phase fraction determines the strength of the final product. It is of utmost importance to measure the phase fraction online before the rapid cooling zone for a closed loop feedback system to achieve the desired phases. In this context, we are looking for an innovative methodology that can be installed inside a furnace before rapid cooling zone, where the temperature of the sheet is around 900 °C, and the solution should exclude radiation-based techniques.
    Mentor:
    Bonikila Pradeep Reddy
    bonikila.reddy@tatasteel.com
  • Problem Statement 10:
    Smart and Rugged Inside Pipe Crawler for Pipeline Inspection
    In every economy, pipeline networks play a crucial role for the logistics of water, oil and gases, and other substances. These pipeline networks run across remote locations of the country. In one hand, their ability remain under the grounds remote locations enables carrying pipeline goods, but the same has become a challenge for its maintenance. So, as a solution we are looking for a smart pipeline crawler, which can run inside a pipeline for long distances (minimum 5 km). It can be powered by wires or wirelessly. In case of a wired crawler, consider the weight of wires that must be dragged during its travel. The crawler should have a fool-proof contingency provision too. Preferably, the crawler should be capable of navigating in the branches of the pipeline at least two branches. The crawler should have the provision for camera, and GPS for tracking.
    Mentor:
    R.Shunmuga Sundaram
    rs.sundaram@tatasteel.com
  • Problem Statement 11:
    Recyclable/reusable (thermoplastic) polymer based composite coating on steel for enhanced corrosion resistance and mechanical properties
    Organic (or secondary) coating are applied on different grade of steels for corrosion protection and other functional properties. Most of these organic coatings are based on thermosetting polymers (e.g. epoxy, polyurethane, silanes etc) which cannot be recycled in future. Here, we are looking for developing a recyclable/thermoplastic polymer based composite coating on steel which can be recycled afterwards
    Mentor:
    Kuntal SarkarMentor:
    Kuntal.Sarkar@tatasteel.com
  • Problem Statement 12:
    Alcohol as precursor for graphene flakes production
    "Graphene is a two-dimensional nano material with remarkable chemical and physical properties. It consists of a single layer of graphite which is essentially a single atom thick sheet of carbon atoms arranged in a honeycomb lattice. This single layer of graphene has a large surface area of 2650 m²/g. It has high electrical conductivity than silver and is thermally stable up to 3300 °C.  Graphene has a tensile strength around 200 times that of steel. However, since it is not a structural material it can only be used as additives to improve the mechanical properties of materials. Various organic precursors have been used to prepare graphene and other carbon-based nanomaterials. The liquid phase chemical vapor deposition (LPCVD) method has been used to produce graphene film of copper surface in a controlled manner. The LPCVD method uses a mixture of organic precursor such as ethanol and inert argon gas is passed onto the surface of a copper sample at around 900 °C. We have developed a CVD setup which can use solid precursor to produce graphene powder. Unlike the LPCVD process where graphene is produced as films of metal surfaces, here, graphene is produced in bulk. The problem of this challenge is to modify and optimize the setup to produce graphene from alcohol in bulk. The first part of the challenge will constitute how to modify the machine to incorporate liquid precursors. The second part will have preparation of graphene and its characterization and the optimization of various parameters. "
    Mentor:
    Dr. Trilochan Bagarti
    trilochan.bagarti@tatasteel.com
  • Problem Statement 13:
    Graphene nanocomposite as efficient agricultural chemical waste removal
    Water resources are mostly affected wastewater sourced pollution mainly by the agriculture chemicals (pesticides) in particular, organochlorine compounds represent an important group of persistent organic pollutants that act as possible carcinogens and mutagens. Graphene oxide (GO) being one of the important graphene derivatives has demonstrated to be a prospective material for the filtration of pesticides, because it enhances adsorption of pesticides due to its relatively large specific area, abundant functional groups, and extraordinary mechanical strength. In this direction utilizing the potential of graphene-based material and its nanocomposites, seeking an innovative way to extract organic impurities from wastewater.
    Mentor:
    Dr. Vimal Kumar Sharma
    vimal.sharma1@tatasteel.com
  • Problem Statement 14:
    Graphene from Waste Oil
    Quite a variety of hazardous contaminants remain present in waste machine oils. These contaminants include mostly benzene and polycyclic aromatics. If released inappropriately into the environment, they can cause serious harm to our biosystem (e.g. animals, plants fishes etc.) in numerous ways.
    Graphene, a single atomic layer from a graphite sheet, is one of the most interesting and important materials being investigated all over the world because it has huge number of applications almost in every field of technology and science. If graphene can be synthesized from waste carbon sources, it would be of immense benefit to the world.
    This process of graphene preparation can be done by Chemical Vapour Deposition (CVD) or normal pyrolysis. In a high temperature range, samples are prepared at various temperatures, with an increment in temperature in steps. The material is then deposited via the CVD process. The depositions for various temperatures can be checked by spectrophotometric analytical methods for potential presence of graphene. Generally multi-layered graphene comes around 3500C. It would be highly beneficial if we can adapt this method of converting the harmful waste materials into graphene for various applications.
    Before starting these process, we can characterize what are the other impurities present in the oil and how can we remove those. In another way, we can use those impurities (mostly metals) for some value added graphene composites for more applications.
    Mentor:
    Dr. Amartya Bhattacharya
    Dr. Chandrani Pramanik
    amartya.bhattacharyya@tatasteel.com chandrani.pramanik@tatasteel.com
  • Problem Statement 15:
    Ceramics Coating or joining on Metal surfaces
    Joining of metal to ceramic is a challenge area. Metals are conducting, high density materials. Ceramics are insulating and low-density materials, however when they are coated onto metals as in case of biomedical implant, they often fail to adhere. There are applications where we need both ceramic and metals with proper interlayer sealing (e.g. -vacuum feed through etc.). Due to their thermal expansion co-efficient mismatch, it is difficult to join both. The available technologies are metallization or active metal brazing. But each process has their limitations. The challenge is to get better joining for high temperature industrial and Medical applications.
    Mentor:
    Kingshuk Poddar
    kingshuk.poddar@tatasteel.com
  • Problem Statement 16:
    Ceramic Composites for diversified application
    Ceramics are brittle in nature, but Ceramics are best wear resistant materials. If the Ceramics can be converted into Composite keeping same high wear resistant property, could be wonder material for several impact and wear application where presently ceramic cannot be used as it cannot withstand impact. The challenge is to convert the Ceramics into Composites for more diversified applications. The intended application would involve medical, public health & sanitation and clean energy, hence choice of non-toxic fibres and resins (glass/carbon fibres, polymers) have to be borne in mind.
    Mentor:
    Kingshuk Poddar
    kingshuk.poddar@tatasteel.com
  • Problem Statement 17:
    To widen the application temperature range of FRP-Composites
    The application of polymer matrix-based fibre reinforced composites is limited by the temperature the resin can withstand which is generally in the range 200-250 o C. The application temperature can sometimes be enhanced by using exotic polymers which are associated with higher cost due to availability issues. Due to low application temperature, FRP-Composites could not be used in a multitude of applications for industrial and infrastructure sector. On the other hand, high temperature resistant materials (mostly oxide ceramics) are abundantly available in the nature. The body of knowledge at the intersection of these two materials (FRP-Composites and refractories) provides us the opportunity to achieve an unprecedented set of properties by developing a new-age materials combining the properties of both. This project will require fundamental material development work through a design of experiment comprising of a set of selected precursor materials to achieve higher corrosion resistance, lighter weight and at the same time resistance to higher temperature e.g., up to 1000 o C.
    Mentor:
    Sudip Bose
    sudip.bose@tatasteel.com
  • Problem Statement 18:
    To valorise selected natural fibres as an alternate to glass fibre for making FRP-Composite.
    Glass fibre is an integral load-bearing component of GFRP-Composites which provides it the strength. The supply chain of glass fibre in India is dominated by few foreign manufacturers and hence the glass fibre manufacturers appropriate higher value from the value chain by exercise greater bargaining power. The logical solution can be the adoption of abundantly available natural fibres as an alternate to glass fibres. But natural fibre is associated with inconsistency in properties due to the absence of lack of repeatability in the structure across the dimension. This problem can be solved by developing a material and/or a process which if used to treat the natural fibres can improve the consistency in fibre properties making it a techno-economic alternate to the synthetic glass fibres. Once developed, this can bring in sustainable competitive advantage to the Indian Composite Manufacturers.
    Mentor:
    Sudip Bose
    sudip.bose@tatasteel.com
  • Problem Statement 19:
    Cost effective Highway Crash Barrier Design Solution with Glass Reinforced Polymer Composite
    Highway CRASH Barrier with Glass Reinforced Polymer Composite: Traditionally Carbon Steel is used in Highways Crash Barrier design, the main purpose of which is to divert the vehicles back on the Track in the event of any accident or collision. The Crash Barrier design requires a material and design solution which offers sufficient energy absorption capability, minimum deflection and reduced accident severity index (ASI) during impact. The design of Crash Barriers is governed by IRC guidelines: EN 1317 – Part 2 & MASH.
    Although Carbon Steel meets the above-mentioned requirement, however there is an opportunity to offer an alternate material and design solution which could enhance the performance (deflection and energy) and reduce weight, cost and accident severity index further. Additionally, mild steel has a problem of corrosion and pilferage related issues.
    Glass Fiber Reinforced Polymer (GFRP) Composites can be a suitable alternative considering its better strength to weight ratio and good corrosion resistance properties. Due to inherent insulation properties of GFRP composites, it also eliminates any kind of electrical hazards. Crash Barrier manufactured with GFRP Composites can also offer better aesthetics as well as reduces the chance of pilferage.
    However due to relatively low stiffens of GFRP Composites it generally requires higher thickness to match the Mild Steel performance of Crash Barrier which makes the GFRP Crash Barrier solution expensive compared to existing mild steel offering. Hence an innovative Design/Technology /Manufacturing solution using GFRP Composites is sought which can make the offering cost effective compared to existing Mild Steel solution.
    Mentor:
    Sumit Pratihar
    sumit.pratihar@tatasteel.com
FAQs

No. Registration is FREE.

Kindly refer eligibitity & rules for qualification criteria.

No, only 1 idea basis of the case study needs to be submitted by the team.

No, you cannot change your team once registered.

No, Currently we are accepting the Ideas around the problem statements shared.

No, the deadline can't be extended for the idea registration.

No, you cannot be a registered as a participant of 2 teams at once for the Event.

No, one does not need to be logged in or be online for the entire duration. You can develop the presentation on your local system based on the given themes and then submit it on Mettl, on the specific challenge page.

Yes, both the team members can login from their account and submit the presenation.

A team can consist of maximum 2 members for registration, Note - Approval of HOD is required for 2nd participant - Approval Format.

You should sign up as an individual and then you can invite other member to your team.

For shortlisted candidates, notifications will be shared through Mettl.

Connect with our support team at mettl-support@mercer.com.

No, the challenge can only be accessed through a laptop/desktop.