We ask you to let us measure the waste, map the heat and water flows, protect the original technology, and show you the first bankable pilot. Everything else follows from metered data.
Each stage does one job, and each stage is only added where the site's chemistry, temperature and flow actually support it.
Particulate is pulled out of coal, biomass, wood, waste and fuel-oil exhaust streams before any broader heat-recovery integration — so nothing downstream fouls.
A cleaner path for solid-fuel operations, reduced visible particulate burden, and stronger control over the whole platform.
The flue-gas condensing economizer recovers sensible and latent heat and, where chemistry permits, water vapour for greenhouse, condensation, compression or process use.
Lower stack losses, fuel reduction, possible water recovery, reduced stack noise, and productive use of CO₂ and H₂O where appropriate.
Novacab TESS pulls thermal energy from hot water, vapour, condenser loops, stack heat, compressor and refrigeration rejection, and process streams.
Less waste heat, a balanced thermal profile, lower cooling burden, reduced water pressure, and more usable heat per unit of fuel.
Synthetic phase change material banks the energy and releases it later — smoothing peak loads, thermal cycling, vacuum and load swings, and temperature-sensitive processes.
Improved product consistency, less rework and spoilage, less manual intervention, and better uptime.
Where temperature and flow support it, TESS enables behind-the-meter power generation from rejected thermal energy above roughly 53–55 °C.
Additional output, resilience, emergency and black-start support for key infrastructure, and lower grid exposure.
TESS is built around synthetic phase change materials designed to be non-toxic, non-carcinogenic, non-flammable and environmentally benign — and to perform reliably for decades.
A practical heat-exchanger and flue-gas condensing platform for combustion exhaust streams where chemistry, condensation, corrosion and condensate treatment have been reviewed.
An authorised particulate-management pathway for solid-fuel and particulate-heavy exhaust. Unauthorised copies cannot deliver the IP-safe engineering stack or warranty accountability.
The safest commercial approach is not to promise a full-plant result from a paper estimate. It is to select a small, measurable pilot at the largest thermal pain point, make it bypassable, install around a planned shutdown, and measure savings before scaling.
| Phase | Purpose | How we control the time penalty | Deliverable |
|---|---|---|---|
| Data package | Obtain fuel, power, water, steam, stack, refrigeration, cooling-tower, production, product-quality, maintenance and emissions data. | Remote review first; a site visit only once the data is sufficient. | Data request and gap list. |
| Thermal map | Map heat sources and heat sinks; identify clean, hot, continuous, nearby streams with strong reuse potential. | No production disruption — operating logs and non-invasive measurement wherever possible. | Heat and water balance. |
| Pilot scope | Pick one pilot with fast payback and low process risk. | Modular, bypassable design; tie-ins planned for a maintenance window. | Pilot engineering package and a conservative cost-benefit analysis. |
| M&V period | Measure 30–90 days of savings in energy, water, product quality, emissions and uptime. | Run in parallel with existing systems; redundancy is never removed prematurely. | Measured savings report. |
| Full rollout | Scale only once bankable data supports financing and management approval. | Staged by area, boiler, pan, line, cooling system or furnace. | Full EPC quote, finance plan and implementation schedule. |
Metered baseline → limited pilot → bankable savings → financed rollout → local assembly and manufacturing as volume justifies. Every client-facing cost-benefit analysis uses pilot-first economics, not full-plant paper estimates.
Eligibility depends on sector, project scope, company size, state, technology classification, commissioning timing, lender participation and documentary compliance. Every pathway below must be verified by the India finance and legal team before any client commitment.
| Pathway | Potential relevance | Verification required |
|---|---|---|
| BEE / ADEETIE | Energy-efficient technology deployment support for eligible industrial and MSME clusters — handholding, Investment Grade Energy Audits, Detailed Project Reports, M&V and interest-subvention pathways. | Sector and cluster eligibility, borrower category, lender participation, technology qualification, and the timing and amount of support. |
| PAT / ESCerts | Large designated consumers should screen whether measured energy savings carry compliance or certificate value. | Designated-consumer status, baseline, admissibility, and current certificate market rules. |
| MNRE biomass / bioenergy / waste-to-energy | Sugar mills, biomass, CBG, waste-to-energy and non-bagasse cogeneration projects may have support pathways depending on exact scope. | Current programme status, eligible technology, commissioning window, CFA rules, and exclusion or overlap with other subsidies. |
| State industrial programmes | States may offer energy-efficiency, pollution-control, water-saving, manufacturing, captive-power or capital subsidy support. | The state policy current to the project location, and whether imported versus local-assembly content affects eligibility. |
| Green / ESG finance | Banks, development lenders, customers, corporates and investors may support lower-carbon, water-saving, resilient industrial projects. | Measurement protocol, borrower credit, lien and security, offtake or shared-savings structure, and guarantee requirements. |
Keying off Dr. Stephane Bilodeau's Novacab TESS theory, this is an illustrative "what if" model against India's FY2024–25 energy statistics — a macro estimate to size the conversation, not a detailed engineering audit. Every figure here is a planning-level guesstimate, not an audited or contracted number.
| Illustrative figure | What if the model assumes | What it's meant to show |
|---|---|---|
| ~5,400 TWh-eq/yr lost (~$200B–$285B) | If more than half of India's conventional energy supply is lost during treatment, transport and use, applied to FY2024–25 primary energy supply. | The order of magnitude of the national waste-heat problem, not a measured figure. |
| ~1,600–3,800 TWh-eq/yr recoverable (~$120B–$200B) | TESS recovering roughly 30% of today's modeled losses, plus 15–20% further reduction from thermal-load balancing. | A ceiling for what waste-heat recovery could plausibly reach at national scale — before any real project pipeline exists. |
| $53B–$122B addressable at 10–20% penetration | Against a theoretical long-run TAM of $531B–$610B for a Sidel Systems India manufacturing plant, phased in over time. | A directional case for why local manufacturing and assembly could make sense — not a sales forecast. |
The same "what if" model compared against India's nuclear buildout — framed as complementary paths, not competing ones. Waste heat recovery can start now, in parallel, while longer-lead nuclear capacity comes online.
| Comparison point | TESS + ORC waste heat recovery | Nuclear power |
|---|---|---|
| Illustrative realistic potential | 180–250 GW+, distributed across plants, industry and data centers | 40–50 GW, concentrated at planned sites |
| Illustrative capex | ₹90–120 crore/GW — modular, factory-built | ₹1,200–1,800 crore/GW — reactor island, safety systems |
| Illustrative payback | 2–4 years | 12–18 years |
| Illustrative time to power | 6–18 months, brownfield integration | 8–12+ years, siting through commissioning |
Every number on this page and the one above is a macro, illustrative "what if" estimate built on published national energy statistics, industry benchmarks and reference-plant analogues — not a site-specific measurement, an audited figure or a forecast anyone should finance against. They exist to size the conversation and are superseded, on any real project, by the metered baseline and engineering process described above.
Every one of these industries shares the same problem: paid-for energy is generated, then rejected. National impact grows when the first pilots prove fuel savings, water savings, output gains and lower emissions intensity in a form that can be financed and repeated — with local engineering, local assembly and local service behind it.
All claims relating to site savings, water reduction, output increase, emissions outcomes, payback, incentives and deployment economics are planning assumptions, analogues or prior-project references — unless and until they are validated for the specific facility through engineering, measurement, vendor quotation, financing documentation, legal review and final commercial agreements. Near-zero emissions is an engineered project objective, not a regulatory guarantee, until it is demonstrated.