Electrifying Indian Kitchens

Why in News?

India spends $26.4 billion a year importing cooking gas, cooking with electricity is now cheaper than cooking with unsubsidised LPG, but moving hundreds of millions of kitchens from flame to wire raises a chain of questions about cost, grid stress, and who pays when demand spikes.

Why is gas-based clean cooking hitting a wall?

• Growth of Domestic LPG connections – It grew from 150 million in 2015 to 332 million by 2025.
• But India imports 60% of its LPG and 50% of its natural gas, yet 37% of households still burn firewood and dung.
• Rising import cost – The Institute for Energy Economics and Financial Analysis (IEEFA) estimates that the combined import bill hit $26.4 billion in FY24–25 — a 50% jump in six years.
• Geopolitical Vulnerability – Every West Asian escalation sends a price shock straight into Indian kitchens.

Can electricity beat gas on cost, efficiency, and everyday cooking?

• Advantage of Electric Cooking – An IEEFA study found that electric cooking is 37% cheaper than non-subsidised LPG and 14% cheaper than piped natural gas for a family of four in Delhi — without any electricity subsidy.
• Only PM Ujjwala Yojana’s heavily subsidised LPG is cheaper, but that subsidy costs the government thousands of crores annually.
• Efficiency Gap – Induction cooktops transfer about 85% of energy to the vessel; an LPG burner manages roughly 40%.
• Electric pressure cookers, tested across the MECS programme’s multi-country cooking diaries, use less energy than any other device assessed.
• Cooking Complexity in India – Indian meals often require multi‑pot cooking (chapatis, tadka, dal simultaneously), knows that a standard single-plate induction unit is insufficient.
• TERI advocates for R&D on multi-pot and flame-replicating induction models as a precursor for mass adoption, explaining why electric cooking was only 5% in 2021.
• Urban First Strategy – Both International Institute of Sustainable Development and IEEFA recommend starting with urban kitchens, freeing imported LPG for rural areas that still lack reliable electricity.

What is a ‘peak,’ and what does a utility do when demand outstrips supply?

• Peak – Electricity use rises and falls through the day; it climbs around 3 p.m. and again between 9–11 p.m., when households switch on lights, fans, TVs, and ACs together, this surge in demand is called the “peak.”
• Rising Peak Demand – India’s peak demand rose from 148 GW in 2014 to a record 242.5 GW in December 2025.
• For every degree rise in average daily temperature, peak demand now increases by more than 7 GW, according to the IEA.
• Options when demand spikes supply – When discoms face demand beyond contracted supply, they can
  • Buy power on the spot market, prices jump from ₹3.50/unit to ₹9–10/unit during peaks.
  • Run gas-based peaking plants, costly but quick.
  • Release stored hydropower.
  • Dispatch grid-scale batteries, e.g., BSES Rajdhani in Delhi’s first commercial battery storage.
  • Impose load shedding — planned blackouts, disruptive and penalised by regulators.
• E-Cooking Challenge – Adding millions of induction cooktops to that evening peak would steepen the evening peak, raise spot-market costs, and increase the risk of outages.
• The question is not whether to electrify, but how to electrify without overwhelming the grid.
• That is where automated demand response (ADR) enters the picture.

Can smart technology flatten the peak automatically?

• OpenADR – It is a two-way communication standard that enables automated participation of smart thermostats, EV chargers, water heaters, cooktops in demand response, ancillary services (frequency/voltage), and DER coordination.
• These devices then adjust their consumption automatically, without anyone having to lift a finger.
• Origin – Born from California’s 2002 energy crisis, its latest version plugs into modern energy systems using standard web protocols.
• India’s Early Deployment – Tata Power Delhi Distribution ran the country’s first OpenADR pilot across 167 commercial and industrial consumers, achieving an average peak reduction of 14%.
• The studies suggest 7% peak shaving if scaled across all Indian buildings.
• Global Use – South Korea’s Auto DR pilot cut electricity use by 24%; such programmes typically pay for themselves within four years by deferring the cost of new grid infrastructure.
• Challenges
  • Discoms still lack is the full stack – OpenADR-compliant servers, smart-meter-embedded receivers, and aggregator platforms that can orchestrate distributed loads into virtual power plants.
  • Households as Grid Participants – Building this stack is only half the solution, the other half is turning households into active grid participants.
  • From passive consumers into active participants alongside upgrading households load capacity from 3 kW to 5 kW through investment in transformers and feeder infrastructure.

Can rooftop solar and neighbourhood trading take the pressure off the grid?

• Prosumer – A rooftop solar panel paired with a battery turns a household into a ‘prosumer’ both producer and consumer.
• The panel generates power by day; the battery stores the surplus; and the stored energy is discharged in the evening to run the induction cooktop.
• This offsets precisely the peak that mass e-cooking would otherwise create.
• Global evidence – A 2025 Australian study found that combining rooftop solar, batteries, and off‑peak scheduling halved peak load & cut grid reinforcement costs by 75%.
• India’s Rooftop Push – Solar capacity is projected to more than double from 24 GW in 2026 to over 41 GW by 2030, boosted by the PM-Surya Ghar Yojana, which aims to give 300 units of free electricity to 10 million households.
• Peer-to-Peer (P2P) Trading – P2P trading lets a household sell excess electricity directly to a neighbour using a digital platform, bypassing the traditional discom route.
• India ran South Asia’s first blockchain-based P2P solar trading pilot in Lucknow.
  • Led by the India Smart Grid Forum and Australia’s Powerledger
  • Under a regulatory sandbox approved by the UP Electricity Regulatory Commission.
• Result - a 43% reduction in the energy buy price compared with the retail tariff.
• The pilot’s success led Uttar Pradesh to direct all its utilities to make provisions for P2P trading — a first for any State.
• In February 2026, Centre announced a P2P facility under the India Energy Stack for Delhi and western UP.
• Neighbourhood Micro Power Plants – If a cluster of homes on a single feeder can trade solar surpluses during the evening cooking hours
  • the local peak flattens,
  • the discom avoids buying expensive exchange power, and
  • the neighbourhood effectively becomes a micro virtual power plant.

What needs to happen, and how soon?

• Global Policy – New York’s All-Electric Buildings Act mandates all-electric new construction under 7 storeys from Jan 2026, taller buildings by 2029.
• India’s groundwork
  • Go Electric campaign & National Efficient Cooking Programme target 2 million induction stoves
  • BEE launched star labelling for induction hobs
  • PM-Surya Ghar Yojana links rooftop solar linked to household savings.
• Redirect subsidies – Estimated Rs.40,000 crore annual LPG subsidy towards one-time capital support for induction cooktops.
• Bulk procurement – Expand EESL’s bulk-procurement model to e-cooking appliances.
• Smart tariffs & Tech standards – Mandate time-of-use tariffs for e-cooking and require OpenADR compatibility in new appliances and smart meters.
• R&D push – Fund on multi-pot induction technology designed for Indian cooking.
• Construction norms – Mandate all-electric new residential buildings in Tier-1 cities.

What lies ahead?

• Geopolitical risk & Economic sovereignty – Every dollar we spend on LPG imports goes through a supply chain that’s completely exposed to Hormuz choke points and whatever the oil producers decide to do that week.
• Transitioning from imported fuel to homegrown power is not just energy policy — it’s national sovereignty.
• Urban India is the obvious place to start this shift.
• The question is whether the policy framework will catch up before the next oil shock forces the issue.

Reference

The Hindu | Why India must electrify its kitchens at scale?

Demand for sixth schedule in Ladakh

Why in News?

The Union government has revoked the detention of activist Sonam Wangchuk under the National Security Act (NSA), nearly 6 months after his arrest amid the Ladakh movement seeking statehood and protections under the Sixth Schedule.

• Sixth Schedule – Articles 244(2) and 275(1) provides autonomous governance to tribal areas through Autonomous District Councils (ADCs).
• Objectives – Protect tribal identity, land, and customs and ensure self-governance.
• Applicable areas - Applicable Only in Northeast India – Assam, Meghalaya, Tripura, Mizoram.
• Key Features of Sixth Schedule –

Sixth Schedule demand in Ladakh

• Demographic Argument – 97% population are Scheduled Tribes.
• Post-2019 Concerns – After abrogation of Article 370, fear of Land alienation, Job competition, Cultural dilution.
• Environmental Protection – Fragile Himalayan-glacial ecosystem needs local control.
• Demand for Greater Autonomy – Existing councils lack legislative & judicial powers.

Existing Governance in Ladakh

• Union Territory without legislature.
• Two councils - Leh Autonomous Hill Development Council and Kargil Autonomous Hill Development Council, statutory bodies, not constitutional (unlike ADCs).

Government’s Current Approach

• Instead of Sixth Schedule, Centre proposes:
• Reservation & Domicile –Up to 85% reservation and 15-year domicile rule.
• Article 371-Type - Safeguards like Article 371A and Article 371G
• Strengthening Hill Councils –More administrative & financial powers.
• Proposal for new councils in new districts.
• Cultural Protection – Recognition of local languages (Bhoti, Purgi etc.)

Quick Facts

• Disputed Areas in Ladakh
  • Indo - China Border – Aksai Chin, the Pangong Tso, Galwan Valley, Depsang Plains, Demchok, and the Gogra-Hot Springs region.
  • India - Pakistan Border – Shaksgam Valley, Siachen Glacier

References

1. The Indian Express | Sixth Schedule in Ladakh
2. Ministry of External Affairs| Sixth Schedule    

NavIC (Navigation with Indian Constellation)

Why in News?

India’s indigenous navigation system NavIC has faced an operational setback after the atomic clock failure in the IRNSS-1F satellite.

• NavIC is India’s regional satellite navigation system to provide accurate positioning, navigation, and timing services.
• It is earlier known as Indian Regional Navigation Satellite System (IRNSS) changed as “NavIC” in 2016.
• Developed by - The Indian Space Research Organisation (ISRO).
• Components
  • Constellation Structure – NavIC is designed with a 7-satellite constellation in high Earth orbit (36,000 km).
  • Orbital Configuration – 3 Geostationary Orbit (GEO) satellites, 4 Inclined Geosynchronous Orbit (IGSO) satellites to ensure continuous regional coverage over India.
  • Ground Segment - The ground network includes Control centres, Precise timing facilities, Range and integrity monitoring stations and Two-way ranging stations
  • These stations operate 24×7 to monitor satellite signals and maintain accuracy.
• Frequencies– NavIC operates on dual frequencies L5 band and S band.
• Coverage – Primary coverage is Entire India and Extended coverage is 1500 km beyond Indian borders.
• Offered Services

• Major Applications – Defence (missile guidance and military navigation)
• Disaster management (cyclone and tsunami alerts for fishermen)
• Transport (AIS-140 compliant vehicle tracking systems)
• Public services (railway tracking and fleet management)
• Civilian (smartphone navigation and IoT devices)
• Interoperability - NavIC signals are interoperable with major Global Navigation Satellite Systems (GNSS)
  • GPS – USA
  • GLONASS – Russia
  • Galileo – European Union
  • BeiDou – China

Reason for recent setback

• As of now, only 3 satellites are fully operational for navigation – IRNSS-1B (2014), IRNSS-1I (2018), NVS-01 (2023) after the atomic clock failure in the IRNSS-1F satellite.
• This is below the minimum requirement of 4 satellites, to determine an accurate 3D position (latitude, longitude, and altitude).

References

1.  Indian Express | NavIC
2. ISRO | NavIC  

Myiophanes kempi

Why in News?
A rare thread-legged assassin bug described from Siju Cave in Meghalaya a century ago has been rediscovered by scientists from the Andaman Islands.

• Recent Identification - Two thread-legged assassin bug specimens collected by a team of biologists from limestone caves in the Andaman Islands in 2019 were identified as Myiophanes kempi recently.
• First Described in – 1924 by British entomologist Willian Edward China.
• It had not been reported for the past 100 years after its first description.
• Assasin bug - It is a species of assassin bug, commonly known as thread-legged bugs.
• Genus – Myiophanes, distinguished from other Emesines by specific wing venation patterns and the structure of the prothorax.
• Sub family - Belonging to the subfamily of Reduviidae.
• Morphology - It has an extremely slender, delicate body with long, stilt-like legs.
• Habitat - It is a specialised predator of the subterranean ecosystem and lives in its complete lifecycle in the darkness.
• Distribution - This specific species is primarily associated with the Indian subcontinent, particularly reported from cave systems in regions like Meghalaya.
• Feeding Behaviour - It uses the long raptorial forelegs for snatching prey like small arthropods of the dark cave environment (troglophiles).
• Ecological Significance - Myiophanes kempi is a troglobitic species, meaning it is adapted to live permanently in caves.
• It plays a role in subterranean food chains, preying on other cave-dwelling organisms.
• Its rediscovery suggests that cave ecosystems may harbor many undiscovered or forgotten species.

Reference

The Hindu | Myiophanes kempi