Best Place To BuildProf. Satyanarayanan Seshadri | "We used to call it the kitchen that cooks startups" | Ep. 4
CHAPTERS
- 0:00 – 2:46
IITM’s innovation “stack”: from CFI maker space to startup launchpad
The conversation opens at CFI/Nirmaan with a walkthrough of how IIT Madras built a layered ecosystem for students to tinker, prototype, and eventually form companies. Prof. Seshadri explains how CFI began as a hands-on student lab and why a structured path was needed to support enterprise creation.
- •CFI started (2007) as a student tinkering/maker space focused on learning-by-building
- •Natural progression: student projects began maturing into entrepreneurial ambitions (2013–14)
- •IITM’s ecosystem is intentionally designed as a journey, not a single program
- •Mentorship, funding, and infrastructure are organized to reduce friction in building
- •Innovation support is integrated with student-led governance and faculty advising
- 2:46 – 5:28
How CFI clubs and competition teams build engineering rigor
Prof. Seshadri breaks down how interest-based clubs form inside CFI and how some mature into competition teams with near-professional engineering practices. This pipeline develops both creative tinkering and disciplined product engineering.
- •Clubs form around student special interests with charters, projects, and CFI funding requests
- •Teams can evolve into competition squads with higher rigor and yearly goalposts
- •Competition teams operate like corporate R&D: simulations, testing, validation, certifications
- •This progression builds an engineering mindset that translates to product building
- •Alumni examples illustrate how club experience feeds future startup capability
- 5:28 – 7:01
Nirmaan’s origin story: the ‘kitchen that cooks startups’
Nirmaan began as a pre-incubator club inside CFI, created to give students a risk-reduced runway to explore entrepreneurship. Its first physical home—an abandoned hostel kitchen—became a symbolic and practical startup co-working space.
- •Nirmaan created as a pre-incubator: learn markets, customers, and company-building basics
- •External mentors (alumni/industry) were brought in because campus mentorship wasn’t enough
- •Students could operate in a ‘risk-free’ sandbox with seed funding and structured guidance
- •Placement deferrals enabled deeper commitment without immediate career penalties
- •First Nirmaan space was the abandoned Cauvery hostel kitchen—nicknamed the startup ‘kitchen’
- 7:01 – 8:13
From local incubation to global scaling: IITM Global and venture building ambitions
The discussion moves from early-stage incubation to what happens after a startup is formed—scaling, global exposure, and venture building. Prof. Seshadri frames this as the next maturity step for IITM’s ecosystem.
- •Physical progression: CFI (tinkering) → Nirmaan (pre-incubation) → training/global pathways
- •IITM Global aims to help startups compete across geographies (global exposure)
- •Shift in emphasis from invention and pre-incubation to venture building
- •Need for experienced ‘builders’ to take ventures from 1 to 100
- •Goal: create many enduring deep-tech unicorns, leveraging IITM’s research depth
- 8:13 – 11:29
IIT Madras’ oldest entrepreneurship degree—and how it was redesigned
Prof. Seshadri explains IITM’s MS in Entrepreneurship (started in 1983) and how its model evolved. The program shifted from selecting students with ideas to pairing entrepreneurial students with faculty lab technologies awaiting commercialization.
- •IITM launched India’s oldest entrepreneurship degree (1983): MS in Entrepreneurship
- •Original model: entrants brought ideas and navigated mentorship to create ventures
- •Redesigned model: leverage lab-ready ideas that need market discovery and translation
- •Students ‘pair’ with faculty to find product-market fit over a structured period
- •Addresses why many faculty/students find commercialization too traumatic or misaligned
- 11:29 – 16:58
Industry engagement and the Energy Consortium: leading to the Shell Chair
The conversation turns to how IITM coordinates energy research across dozens of faculty and connects it to industry and government needs. Prof. Seshadri explains how this platform enabled deep partnerships—especially with Shell—and resulted in the Shell IITM Center for Energy Research and his chair role.
- •Energy Consortium unites 50+ academics working across the energy domain
- •Purpose: move beyond publications/patents toward translational research outcomes
- •Platform brings industry–academia–government stakeholders into shared focus areas
- •Shell sought early-stage (TRL 0–3) research visibility and regional academic partnership
- •Shell IITM Center for Energy Research and a 5-year chair role formalized collaboration
- 16:58 – 21:57
Technology Readiness Levels (TRL): why universities stop at TRL 4 and startups must go to 9
Prof. Seshadri clarifies TRL (originating at NASA) and how it maps to the journey from science to field validation. He also introduces related maturity frameworks—manufacturing readiness and commercialization readiness—to explain what it really takes to reach market adoption.
- •TRL created by NASA: TRL 0–3 science, 4–6/7 tech development, 7–9 field validation
- •Academic incentives align with TRL 0–4 (publications, patents, PhD completion)
- •TRL 4 is a lab prototype; TRL 5–6 are field prototypes at scalable confidence
- •Beyond TRL, manufacturing readiness (MRL) and commercialization readiness (CRL) matter
- •Consortia and startups can push IITM research from TRL 4 toward TRL 9 commercialization
- 21:57 – 24:22
From ‘teaching institution’ to ‘learning institution’: why IITM’s culture shifted
The discussion broadens to institutional transformation—students and faculty increasingly plug into centers of excellence to learn and build. Prof. Seshadri also notes how India’s ecosystem has accelerated as private capital and industry openness increased.
- •IITM is shifting from instructor-driven teaching to a learner-driven model
- •Centers of excellence enable cross-domain learning and hands-on experimentation
- •Earlier commercialization efforts existed (e.g., telecom networks group in the 80s)
- •Private capital availability changed the feasibility of university spinouts
- •Impact becomes a magnet for capital; institutions must enable translation pathways
- 24:22 – 27:18
Decarbonisation explained: GHGs, climate tipping points, and why ‘carbon’ isn’t the enemy
Prof. Seshadri defines decarbonisation as reducing greenhouse gas emissions rather than eliminating carbon itself. He connects atmospheric concentration increases to warming, feedback loops (especially methane), and the urgency behind the 1.5°C goal.
- •Decarbonisation = minimizing GHG emissions (not ‘removing carbon from the world’)
- •CO₂ levels rising from ~350 ppm to 400+ ppm due to anthropogenic effects
- •Warming triggers feedback loops: ice melt → methane release → more warming
- •Methane’s heat-trapping potency is far higher than CO₂ (order-of-magnitude framing)
- •1.5°C target is tied to avoiding uncomfortable ‘new equilibrium’ tipping points
- 27:18 – 30:56
AI’s energy footprint: compute rising from 2% to a projected 14% of global emissions
The conversation highlights AI as a new variable in the climate equation, comparing it to historical productivity shocks like the automobile. Prof. Seshadri warns that compute’s share of emissions could surge dramatically, requiring new baseload power and reshaping energy strategy.
- •All compute (cloud, email, AI) estimated at ~2% of global GHG emissions today
- •Projected to reach ~14% within ~15 years as AI adoption accelerates
- •AI demand requires reliable baseload power; renewables alone may not suffice
- •Risk: new power supply could come from fossil sources in development hotspots
- •Renewed interest in nuclear (SMRs powering data centers) as a lower-carbon option
- 30:56 – 34:39
Global climate governance: UNFCCC, COP summits, and India’s ‘Panchamrit’ commitments
Prof. Seshadri outlines how international coordination happens through UNFCCC and COP conferences, using the ozone/CFC success story as an example of effective collective action. He then explains nationally determined commitments and India’s targets framed around emissions intensity.
- •UNFCCC hosts annual COP summits where countries negotiate coordinated action
- •Ozone hole response (CFC phase-out) is cited as proof collective action can work
- •Countries make nuanced, voluntary commitments (NDCs) based on development context
- •India’s ‘Panchamrit’ includes reducing GDP emissions intensity and expanding renewables
- •Example math: GDP growth must decouple from emissions via efficiency and energy mix changes
- 34:39 – 39:40
Prof. Seshadri’s path into the ecosystem: pollution science → GE energy → Research Park → IITM lab
He traces his personal journey from aerosol pollution research to industrial energy systems, showing how applied industry work shaped his translational focus. Research Park emerges as a key bridge that led him back into academia to build commercialization-oriented research.
- •PhD (Texas A&M, 2007) on aerosols and particulate mitigation (PM2.5/PM10)
- •Postdoc (Rutgers) on lung drug delivery—science-to-application shift
- •Industry at GE: coal gasification and then waste heat recovery exposure
- •Forbes Marshall R&D at IITM Research Park: collaboration with faculty for lab-to-market
- •Returned to academia (2015) to build the Energy & Emissions Lab with a translation mindset
- 39:40 – 45:22
Deep-tech decarbonisation startups: heat pumps (TRIGeN DC) and steam/pressure-to-power (Wankel Energy Systems)
Prof. Seshadri details two core venture lines aimed at industrial emissions reduction: advanced heat pump deployment for industrial heating/cooling and recovering power from wasted steam pressure. He emphasizes the outsized near-term impact potential of efficiency and recovery solutions.
- •TRIGeN DC targets industrial heating/cooling decarbonization using optimized heat pumps
- •Industrial heat pump innovation can deliver large energy bill reductions (50–60% cited)
- •Wankel Energy Systems recovers power from steam pressure drops (‘pressure-to-power’)
- •Key barrier addressed: wet steam damages turbine blades; flexible loads challenge turbines
- •Impact framing: large untapped GW-scale potential, meaningful CO₂ reductions from existing installed base
- 45:22 – 53:34
The GHG-reduction ‘pyramid’: appropriate energy, efficiency, renewables + storage, and demand-side management
He lays out a prioritized strategy for decarbonization—starting with using the right quality of energy and eliminating waste before adding renewables. The chapter expands into storage options and the often-overlooked role of demand-side management, including EVs as grid assets.
- •Step 1: use appropriate energy quality (don’t burn high-temp fuels for low-temp needs)
- •Step 2: improve efficiency and eliminate avoidable waste across processes
- •Step 3: integrate renewables, enabled by storage (electrochemical, thermal, pressure)
- •Demand-side management is critical and needs digital infrastructure to schedule loads
- •EV batteries can become grid arbitrage/frequency-control resources (platform vs ownership shift)
- 53:34 – 1:01:44
Building heavy-tech startups: scaling constraints, patient capital, and changing industry receptiveness
The conversation addresses why industrial/hardware-heavy startups are harder than software-first ventures. Prof. Seshadri explains operational realities (reliability, field service, capital intensity) and how industry attitudes are shifting toward experimentation, especially among globally exposed leaders.
- •Heavy-tech requires reliability and service capability (e.g., 24-hour fixes, multi-year uptime)
- •Scaling is constrained by engineering bandwidth; deployments are capex-heavy (crore-scale units)
- •Deep-tech needs patient capital, not ‘hockey-stick’ growth expectations
- •Industry openness to pilots is rising (ZF, Lucas TVS examples) as firms seek innovation signaling
- •Second-generation industrial leaders and global competition drive faster adoption of new tech
- 1:01:44 – 1:05:56
Managing massive workload through teams—and why IITM is the ‘best place to build’
Prof. Seshadri explains how he manages multiple ventures and institutional responsibilities by building capable teams and stepping away from day-to-day execution. He argues IITM’s differentiator is a culture that not only tolerates but celebrates risk, enabling unusually ambitious projects.
- •Workload strategy: build strong teams; shift pride from ‘I did it’ to ‘my team can’
- •Teams create their own brand, reducing dependence on the founder’s presence
- •IITM’s standout trait: institute-wide tolerance and celebration of risk
- •Examples include ambitious initiatives like rapidly launching an international campus
- •Alumni support and seed funding culture help experiments survive early uncertainty
- 1:05:56 – 1:10:45
IITM’s IP-to-market pipeline: disclosure, patent filing, licensing, and startup-friendly royalties
The episode closes with a practical explanation of how IITM handles invention disclosures, patentability checks, and filings (India and PCT). Prof. Seshadri highlights licensing pathways and a startup-friendly approach that prioritizes commercialization over upfront burden.
- •Process starts with invention disclosure; IP cell (ICSR) evaluates patentability and novelty
- •Filing options: India-only or global via PCT; institute subsidizes most filing costs
- •Technology transfer office bundles patents into thematic stacks for licensing discussions
- •Startup pathway: low upfront burden, royalty-based model tied to revenue/profits
- •Exclusivity possible; clawback if not commercialized—patents support credibility and fundraising
