Que: From your perspective, what key lessons can India draw from Sweden’s energy transition journey to accelerate decarbonisation across its industrial and power sectors?

Ans: Sweden as a country has been focused on these aspects for a long time, and India can replicate those models easily. A few of the areas or practices that can be adopted easily are as follows:

India should start codification and fund net-zero pathways. We should scale up renewables and implement grid reforms quickly. We should modernise infrastructure with digital tools. As Sweden did, we should also introduce carbon pricing markets. India should focus on advanced low-carbon technologies and expand decarbonisation programs in the heat sector. We should accelerate project timelines and reduce investor risk.

Que: How are advanced power conversion and grid-interfacing technologies enabling higher renewable integration while maintaining grid stability in rapidly growing energy markets like India?

Ans: In rapidly growing energy markets like India, which are adding vast amounts of solar and wind generation, advanced power conversion and grid-interfacing technologies are essential to enable high renewable penetration without compromising grid stability. This is because variable renewables inherently introduce intermittency, lack the inertial response of conventional generators, and can lead to voltage and frequency fluctuations unless properly managed.

Modern renewable plants (solar and wind) use smart inverters that don’t just convert DC to AC but also actively support grid voltage and frequency through reactive power control, ride-through capabilities, and dynamic response to grid conditions. These features help stabilise voltage, reduce fluctuations, and maintain power quality as renewable penetration increases.

Devices like Static Synchronous Compensators (STATCOMs) and Static Var Compensators (SVCs) regulate voltage and provide dynamic reactive power support, which is essential in areas with weak grid infrastructure where renewable projects are concentrated. India has already initiated deployment of STATCOMs at scale to address voltage instability as wind and solar penetration rises.

Battery Energy Storage Systems (BESS), integrated with renewable plants, store excess generation and dispatch it when needed, smoothing the variable output of solar and wind. This not only enhances reliability but also provides fast frequency response and load-leveling services.

Advanced analytics, AI/ML tools, and real-time grid monitoring improve forecasting, load balancing, and oscillation detection, enabling operators to anticipate demand changes and optimise renewable dispatch proactively.

So, by embedding these advanced power conversion systems, storage solutions, and digital controls into grid infrastructure, rapidly growing markets like India can sustainably scale renewables to meet demand while maintaining a stable and resilient power system.

Que: Where do you see the most immediate opportunities for bilateral cooperation in areas such as industrial electrification, energy efficiency, and integration of emerging technologies?

Ans: The strongest short-term opportunities lie in industrial electrification paired with energy efficiency and digital solutions, supported by grid flexibility and the pragmatic deployment of emerging technologies like hydrogen and storage. Bilateral cooperation is most effective when it focuses on demonstration projects, standards alignment, and shared risk reduction, rather than long-horizon research alone.

Industrial Electrification – Electrification of low- and medium-temperature industrial heat (food processing, textiles, chemicals) using electric boilers, heat pumps, and induction systems. Joint pilot projects in hard-to-abate sectors (steel, cement, fertilisers) that combine electrification with clean power sourcing. Standards harmonisation for electric industrial equipment to reduce costs and accelerate cross-border deployment. Shared financing mechanisms (blended finance, export credit support) to de-risk first movers.

Energy Efficiency – Co-development of industrial energy-management systems (digital monitoring, AI-driven optimisation). Best-practice exchange on efficiency standards, audits, and performance-based incentives. Capacity-building and workforce training focused on energy managers and technicians.

Grid Integration and Power System Flexibility – Cooperation on integrating electrified industry with variable renewables, including demand response and flexible load management. Shared tools for grid planning that account for rising industrial electricity demand.

Emerging Technologies – Green hydrogen for targeted industrial uses (refining, chemicals), with collaboration on certification and guarantees. Industrial-scale energy storage, such as thermal storage and batteries, linked to electrified processes. Digital twins and AI for industrial optimisation, co-developed and tested across markets.

In this regard, Business Sweden’s role in India is a catalyst for Swedish economic engagement—helping Swedish companies grow exports, find partners, navigate local business landscapes, and contribute to India’s growth story in sustainability, innovation, and manufacturing. At the same time, it promotes two-way investment flows, fostering deeper India–Sweden economic integration. KraftPowercon is always a partner in their flagship programs and sustainability initiatives. We have benefited from reaching out to various industry leaders here in India through these programs. Their constant support has helped us reach many decision-makers across the table.

Que: What technology and infrastructure priorities do you believe will be most critical for decarbonising energy-intensive industries?

Ans: The main priorities should be clean electricity, electrification, hydrogen, CCUS, and shared industrial infrastructure, underpinned by energy efficiency and digitalisation. Success depends less on any single technology and more on coordinated deployment at the system level, particularly through industrial clusters and long-term investment certainty.

Decarbonising energy-intensive industries will hinge on a small set of enabling technologies and infrastructure that can be deployed at scale, supported by coordinated policy and investment. The most critical priorities are:
Clean Power at Scale – Expansion of renewable and firm low-carbon power, such as renewables and nuclear, to meet rising industrial electricity demand. This should be supported by dedicated clean power procurement models (PPAs and contracts) tailored to industrial users. Reinforcement of the grid must also be ensured.

Industrial Electrification Technologies – Promotion of electric boilers, high-temperature heat pumps, induction, and plasma heating for low- and medium-temperature processes. Electrified kilns and furnaces for steel, glass, and ceramics. While discussing all these, the focus must be on redesign to make electrification viable.

Hydrogen and Hydrogen-Ready Infrastructure – Green hydrogen production, transport, storage, and blending infrastructure.

Carbon Capture, Utilisation, and Storage (CCUS) – Point-source capture technologies for cement, chemicals, and refining, along with clear long-term liability and regulatory frameworks for storage.

Industrial Clusters and Shared Infrastructure – Co-located industrial hubs with shared clean power, hydrogen, and CO₂ networks. Port and logistics upgrades to handle low-carbon fuels and materials. Common standards and permitting processes within clusters.

Digital and Data Infrastructure – Real-time monitoring and verification systems for emissions and energy use. Digital twins to test low-carbon process changes before deployment. Interoperable data standards across supply chains.