Science-Watching: From Ignition to Energy

[from Science & Technology Review July/August 2025 Research Highlights, by Noah Pflueger-Peters]

Achieving ignition at the National Ignition Facility (NIF) proved that harnessing the power of the Sun in a laboratory may be possible. The Sun’s extreme temperatures and pressures cause light elements to fuse together to create heavier ones, releasing enormous energy and sustaining conditions for more thermonuclear reactions. NIF replicates these conditions with inertial confinement fusion, in which lasers compress and heat a target capsule filled with deuterium and tritium (DT), “heavy” isotopes of hydrogen that contain extra neutrons. When the isotopes fuse, they create helium and a neutron, and the lost mass is converted into inertial fusion energy (IFE), which can be harnessed for energy production.

Nuclear fusion produces significantly more energy than either nuclear fission or burning fossil fuels for equivalent amounts of fuel. Since the input materials for fusion energy are plentiful on Earth, an IFE power plant could produce safe, abundant, power grid-compatible energy without highly radioactive byproducts.

Although significant work remains to harness fusion energy, pursuing the development and deployment of IFE is crucial for the nation’s energy security, enabling the United States to shape implementation worldwide, avoid technological surprises from adversaries, and influence technical leadership in other energy-intensive technologies such as AI, machine learning (ML), and supercomputing.

IFE research stretches back to the early days of Lawrence Livermore, and today the Laboratory is fostering the overall fusion ecosystem. Livermore’s unique capabilities, expertise, and connections will be critical to laying the technical, logistical, and legal groundwork to make IFE possible. “IFE is a grand scientific and engineering challenge, something that is so incredibly difficult and high-risk and takes enormous expertise,” says Tammy Ma, Livermore’s IFE Institutional Initiative lead. “This challenge makes it the right kind of problem for national laboratories to pursue.”

This artist’s rendering shows the concept for an inertial fusion energy (IFE) power plant design, with a cutaway to show the plant’s target chamber in the center. Livermore researchers are laying the groundwork for private fusion companies to build similar designs. (Illustration by Eric Smith.)

Designing for Viability

NIF is the only facility to date to demonstrate the ignition and burning plasma conditions that are prerequisites for IFE, but it is an experimental facility for stockpile stewardship research, not a power plant. To be commercially viable and produce the energy to offset costs and meet demands (baseload power), IFE plants will need to generate more than 30 times the energy they deliver to the fusion target on every shot while firing 10 or more shots per second, compared to NIF’s rate of one or two shots per day.

The Laser Inertial Fusion Energy (LIFE) study, conducted between 2008 and 2013, aimed to build directly on technology developed for NIF to achieve IFE and took a systematic approach to this requirement by developing the Integrated Process Model (IPM). (See S&TR, April/May 2009 [archived PDF], pp. 6-15.)

IPM is a technoeconomic model of an IFE power plant with detailed technical and cost breakdowns and interdependencies of key systems and subsystems. “The work done under LIFE was fantastic,” says Ma. “IPM lays out engineering and physics requirements for the entire system to test out different scenarios and see the impact. Now, we not only get to expand on all that but also leverage 15 years of new data from NIF, better codes, and high-performance computing (HPC), as well as new work in AI, ML, advanced manufacturing, diagnostics, and nonproliferation across the Laboratory.”

IPM describes an IFE power plant that requires a solid-state laser driver system to “pump” lasers with optical energy using laser diodes instead of flashlamps as at NIF. The plant will also need to fabricate and fill target capsules onsite and send them into its target chamber at a high enough frequency to produce baseload power. “We will have to repeatedly inject targets into the chamber, so the targets must be able to withstand and survive that process,” explains Ma. “Then, the lasers will track the moving targets, and when one gets to the center of the chamber, they would fire on the centered target, repeating 10 to 20 times per second.”

The facility would convert fusion energy into heat and then electricity via steam turbines, sending most of the electricity to the power grid and recycling the rest to power operations on subsequent shots. Neutrons from the reaction would produce tritium needed for the DT fuel by bombarding lithium isotopes in a “breeding blanket” material lining its target chamber. By closing both the power and fuel cycles, IFE plants are expected to be self-sustaining.

Thanks in part to IFE STARFIRE (IFE Science and Technology Accelerated Research for Fusion Innovation and Reactor Engineering), a Department of Energy (DOE)-funded multi-institutional IFE research and development hub, researchers across the Laboratory are working to meet the new system’s demands. IPM can help identify key challenges, test the viability of new designs, and direct future research. “Many technical models and cost models exist for IFE, but very few, if any, pair systems and cost models together at the same depth as IPM,” says Mackenzie Nelson, a technoeconomic systems analyst in the Computational Engineering Division. “This type of tool offers such an advantage because we can assess design choices from both a technical and economic standpoint and create blueprints for what an IFE plant could look like.”

(left to right) Livermore researchers Bassem El Dasher, Claudio Santiago, and Mackenzie Nelson discuss a 3D model of a proposed IFE power plant design alongside the Integrated Process Model (IPM). IPM has more than 270 potential user inputs that researchers and collaborators can use to assess different IFE design choices to see the technical and cost impact on the entire design.

Operational Demands

NIF’s target capsules are extremely precise, fragile, and can take weeks to fabricate, fill, and position. Researchers are trying to reconcile that factor with the estimated demand of more than 800,000 capsules per day produced at less than $0.50 each to achieve IFE plant viability. To do this, they are examining optimal target designs for IFE and exploring advanced manufacturing methods such as microfluidics, volumetric additive manufacturing, and two-photon polymerization. (See S&TR, April/May 2025 [archived PDF], pp. 16-19.) Additional projects involve developing diagnostic instruments that can collect, analyze, and combine data with other diagnostics at the 10 to 20 shot per second frequency and use it to improve lasers in real time.

Fusion energy systems such as IFE are also a regulatory challenge, as they generate high-energy neutrons capable of breeding plutonium or uranium-233 and rely on large quantities of tritium. “Pure fusion energy systems do not require fissile material, but there are still ways to misuse these technologies that pose proliferation risk,” says Yana Feldman, the associate program leader for international safeguards. Bad actors may only need small amounts of tritium to make nuclear weapons, and some breeding blanket designs may inadvertently produce traces of plutonium that may be diverted for military purposes.

Nuclear fission reactors are regulated through international agreements and export control rules, and the independent International Atomic Energy Agency (IAEA) verifies that nuclear material and facilities are only being used for peaceful purposes. Neither treaties nor the IAEA address fusion energy, and no consensus has been reached on whether fusion energy systems need an international verification program. Verification methods for safeguarding tritium are also far less developed than for plutonium and uranium and focus more on contamination and transfers than analytical accounting for discrepancies. The precise scale of allowable tritium unaccounted for without posing proliferation risk is also unclear.

Fusion systems can be designed for proliferation resistance, but not having an existing design remains a challenge.

International security analyst Anne-Marie Riitsaar and her colleagues are exploring these complexities and starting conversations with international fusion experts and private industry to raise awareness. Riitsaar also plans to collaborate with the IPM team to map tritium diversion vulnerabilities and identify high-risk points where researchers could incorporate surveillance methods into plant designs to detect and prevent potential misuse. “People sometimes ask me why I’m thinking about fusion energy regulations and proliferation risks at this point, but it’s not too early,” says Riitsaar. “Reaching a multinational consensus on regulating sensitive technologies takes considerable time and effort.”

The National Ignition Facility is an experimental facility and not a power plant, so a commercial IFE plant design has vastly different requirements—many of which are being studied by Livermore researchers and their collaborators.

NIFViable IFE plant (estimated)
Repetition rateOne shot per day10 to 20 shots per second
Energy gain4.13 times (as of April 2025)30 times (minimum), 50 times to 100 times (ideal)
How lasers gain energyFlashlampsDiode pumping
Target fabrication and fuel fillingFabricated offsite over several weeks and filled manually in 1 to 5 daysMass-manufactured and filled in a target factory within the facility
Target deliveryPositioned manually within the Target ChamberShot into the plant’s target chamber approximately 10 to 20 times per second
Laser alignmentComputationally in real time, taking up to 8 hoursIn real time
Power cycleOpen, requiring outside energy sourcesClosed, applying reused energy to power laser and ancillary plant operations
Fuel cycle (tritium)Produced offsiteBred onsite

The Laser Driven Fusion Integration Research and Science Test Facility (LD-FIRST) is a proposed blueprint for a proof-of-concept IFE facility that will test all the key IFE subsystems in an integrated fashion. A public-private partnership will likely be necessary to build the facility and will help the IFE community address the main subset of risks and the technological challenges of building a commercial plant.

Converging on a Solution

The team seeks to make IPM as accurate and comprehensive as possible by meeting with subject matter experts across the Laboratory to incorporate the latest research. “We’re trying to evolve the model so it has the same level of high detail across every single functional area to tell us where we can focus research and help us find optimized solutions that we could propose to industry,” says Nelson.

Computer scientist Claudio Santiago and his colleagues also modernized IPM by porting its framework from Microsoft Excel to Python in December 2024, making it compatible with AI, ML, design optimization, and HPC to further inform designs. “Once we think about all the forcing functions such as minimum shot yield and materials requirements pinning us in from every direction, we end up with an optimized solution space. As we sharpen the pencil more with these tools, that optimized solution box gets smaller until eventually we’ve converged on a point design,” says IFE lead systems engineer Justin Galbraith. Galbraith and his team’s point design is called the Laser Driven Fusion Integration Research and Science Test Facility, or LD-FIRST, a proof-of-concept physics demonstration facility for IFE. “That point design, we anticipate, will serve as the foundation for a future public-private partnership that would facilitate building and realizing a physical facility to focus the IFE community in pursuit of fusion power on the grid,” says Galbraith.

Livermore is leading the charge in IFE, helping the United States develop a technological roadmap, growing and coordinating science and technology efforts within the Laboratory, and fostering partnerships across the fusion industry, academia, and government.

Ma chaired DOE’s “Basic Research Needs for IFE” workshop and report in 2022 and co-chairs the subcommittee providing recommendations on the nation’s fusion activities through DOE’s Fusion Energy Sciences Advisory Committee. She and her team travel often to Washington, D.C., working with DOE and legislators to expand fusion energy research and advocacy in the nation. Livermore also leads a “Collaboratory” with other DOE national laboratories to connect research project leads and facilitate public-private partnerships. The Collaboratory has hosted multiple events with industry, and the Laboratory has partnered with three private companies who aim to design pilot IFE plants.

Meanwhile, Galbraith and other IFE leaders have served as technical advisors for engineering design teams at Texas A&M University and given them IFE-relevant problems to solve, including advanced chamber and blanket design. Galbraith is working with Nelson to develop the IFE plant design portion of a high-energy-density science summer school program, which Nelson is leading in 2025 at the University of California at San Diego, and they have developed IFE curriculum that has been deployed at six universities starting in spring 2025. “We’re hoping we can get a group of students really excited about fusion and start to build up the next generation of engineers and scientists that will make fusion a reality,” says Galbraith. The team has led IFE strategic planning exercises at the Laboratory, and Lawrence Livermore will stand up a new fusion institute—named “LIFT,” for Livermore Institute for Fusion Technology—a research and development center that will coordinate and centralize institutional fusion energy research.

Harnessing IFE will be a massive undertaking, but Livermore’s broad and deep expertise, facilities, and capabilities put the Laboratory in a unique position to lead and play an impactful role. “If we can set it up correctly, IFE will be a big piece of the Laboratory’s long-term vision,” says Ma. “IFE plays off of our history and all of our strengths, and it is critical for long-term national security.”

Economics-Watching: Kuwait: GDP Returns to Growth in Q1 2025 as Impact of Oil Output Cuts Fades

[from NBK Economic Research, 21 July, 2025]

by Mohammad Al-Shehri, Assistant Economist & Omar Al-Nakib, Head of MENA Research

Preliminary official figures show GDP expanding 1% y/y in Q1 2025 following seven consecutive quarters of contraction, helped by a less severe downturn in oil output. With the negative effects of earlier voluntary oil production cuts beginning to fade, oil GDP recorded only a marginal decline, the softest since Q2 2023. Growth in non-oil activity remained positive though eased, weighed by a moderation in the manufacturing, real estate, and transport sectors. The near-term outlook for GDP is one of positive growth, lifted by rising oil production after Kuwait started to restore 135 kb/d of oil output cuts between April and September 2025, while the non-oil sector should also register further steady gains.

Non-oil GDP growth softens in Q1 2025 after strong performance in Q4 2024

Growth in the non-oil sector weakened in Q1 2025, slowing to 2% y/y compared to 4% recorded in the prior quarter. (Chart 1.) The softer expansion in non-oil activity reflected, among other things, a moderation in the manufacturing sector, where activity grew at a still-solid 4.3% despite a decline in refined petroleum products output but slowed notably from the 12.2% reading registered in Q4 2024. Growth in other sectors including real estate, wholesale & retail trade, transport, and education also slowed. Offsetting the slowdown was stronger expansion in the non-oil economy’s largest segments: public administration and defense as well as financial intermediation and insurance, which grew 1% and 3.2% y/y, respectively. (Chart 2.)

Chart 1: Real GDP growth

Chart 2: Growth at sub-sector level (1Q25)

Oil sector logs marginal contraction, set to return to growth in Q2

The contraction in oil GDP eased significantly to -0.3% y/y from -5.7% y/y in Q4 2024, registering the softest rate of decline since Kuwait embarked on cutting oil production in Q2 2023 after participating in the voluntary cuts scheme with 7 other OPEC+ members. (Chart 4.) Kuwait’s oil production averaged 2.415 mb/d in Q1 2025, a 0.7% decline from the same quarter last year, according to OPEC secondary sources. However, oil sector fortunes are set to shift in Q2 2025 and thereafter, after the OPEC-8 member alliance started unwinding the 2.2 mb/d voluntary cut tranche in April 2025. Originally planned to be unwound over the course of 18 months, OPEC+ has accelerated the pace of supply hikes with output now on a path to be fully restored in September, a full year ahead of schedule. For Kuwait, crude production rose by 0.5% q/q in Q2 to 2.426 mb/d and is set to accelerate further to average 2.533 mb/d in H2 2025. With the oil market so far able to absorb the additional OPEC and global supply and oil prices currently holding near $70/bbl, an upside risk to our oil sector outlook involves the potential unwinding of the outstanding OPEC-8 voluntary cuts (1.66 mb/d), of which Kuwait’s share is 128 kb/d.

Growth heading back into positive territory in 2025

Growth in total GDP is set to remain on a positive trajectory in the near term, buoyed by further steady expansion in non-oil economic activity and increased oil production. Non-oil GDP is set to benefit from the government’s reform drive which includes the recent passing of the debt law that could catalyze the implementation of key development projects and the potential approval of the ‘mortgagelaw later in 2025, which could spur higher household borrowing and consumer spending. Economic indicators for Q2 2025 pointed to a healthy pace of non-oil economic activity. The key ‘output’ and ‘new orders’ balances in the non-oil private sector PMI gauge both averaged a very robust 57+ in Q2 2025, real estate activity continued to expand at a robust pace with earlier price falls in the residential sector abating, while credit growth stood at a healthy 5.5% y/y in May, and could benefit in coming months if interest rates are reduced further.

Nonetheless, there are also downside risks to the outlook. Local consumer spending growth (according to central bank card transactions data) turned negative in Q1 2025, extending the weakening trend now observed for more than a year. The government’s ongoing fiscal consolidation push will also weigh on wage and job growth. Overall, we see GDP growing 1.9% this year, boosted by expansions in both the oil and non-oil sectors of 1.2% and 2.5%, respectively.

Chart 3: Contribution to non-oil growth

Chart 4: Oil production and oil GDP

Read this article as an archived PDF.

India: Deep History

In his lectures, Professor Amartya Sen, the Harvard Nobel Prize in Economics winner, mentions Sir Mortimer Wheeler, Director-General of the Archaeological Survey of India. Wheeler wrote, while reporting on the excavation of the Indus Valley Civilization (of India), that the plumbing and sewerage were advanced, in some ways surpassing modern equivalents.

Sen’s larger point is that history is characterized by phases of rise and fall and not just classes and class struggles à la Marx.

Consider the following depiction of the East India Company, from The Anarchy: The Relentless Rise of the East India Company (also subtitled The East India Company, Corporate Violence, and the Pillage of an Empire) by William Dalrymple.


On 28 August 1608, Captain William Hawkins, a bluff sea captain with the Third Voyage, anchored his ship, the Hector, off Surat, and so became the first commander of an EIC vessel to set foot on Indian soil.

India then had a population of 150 million — about a fifth of the world’s total — and was producing about a quarter of global manufacturing; indeed, in many ways it was the world’s industrial powerhouse and the world’s leader in manufactured textiles. Not for nothing are so many English words connected with weaving — chintz, calico, shawl, pyjamas, khaki, dungarees, cummerbund, taffetas — of Indian origin. It was certainly responsible for a much larger share of world trade than any comparable zone and the weight of its economic power even reached Mexico, whose textile manufacture suffered a crisis of ‘de-industrialisation’ due to Indian cloth imports. In comparison, England then had just 5 per cent of India’s population and was producing just under 3 per cent of the world’s manufactured goods. A good proportion of the profits on this found its way to the Mughal exchequer in Agra, making the Mughal Emperor, with an income of around £100 million,* by far the richest monarch in the world.

The Mughal capitals were the megacities of their day: ‘They are second to none either in Asia or in Europe,’ thought the Jesuit Fr Antonio Monserrate, ‘with regards either to size, population, or wealth. Their cities are crowded with merchants, who gather from all over Asia. There is no art or craft which is not practised there.’ Between 1586 and 1605, European silver flowed into the Mughal heartland at the astonishing rate of 18 metric tons a year, for as William Hawkins observed, all nations bring coyne and carry away commodities for the same’. For their grubby contemporaries in the West, stumbling around in their codpieces, the silk-clad Mughals, dripping in jewels, were the living embodiment of wealth and power — a meaning that has remained impregnated in the word ‘mogul’ ever since.

By the early seventeenth century, Europeans had become used to easy military victories over the other peoples of the world.

* Over £10,000 million today.

Think of the larger point: what you just read is the story of Indian de-industrialization and its negative results. Ask yourself whether American de-industrialization is something of an echo of this, as manufacturing is offshored.

Movies and Chemistry: Keeping the Enchantment of Education

Several movies give you an “enchanting” back door or window into chemistry so that you can “beat” the tediousness of regular education and come into the field and its topics via these movies:

I.

The Man in the White Suit is a 1951 British comedy classic with Alec Guinness as a genius research chemist. He fiddles with his flasks and polymer and textile chemistry experiments until he invents a fabric that shows no wear and tear “forever.” This would seem like a great boon to humanity in its clothing needs but the chemist (“Sidney Stratton”) finds that both labor and management reject his discovery violently as it threatens jobs and profits. Textile or fabric polymer chemistry is at the heart of the plot.

Cry Terror! is a taut 1958 crime thriller movie with James Mason and Rod Steiger. The plot involves the terrorist threat of exploding a domestic airliner with a hidden RDX cache (a TNT successor) unless the demanded payment is made.

RDX was used by both sides in World War II. The U.S. produced about 15,000 long tons per month during WWII and Germany about 7,000 long tons per month. RDX had the major advantages of possessing greater explosive force than TNT, used in World War I and requiring no additional raw materials for its manufacture.

Semtex is a general-purpose plastic explosive containing RDX and PETN. It is used in commercial blasting, demolition, and in certain military applications.

A Semtex bomb was used in the Pan Am Flight 103 (known also as the Lockerbie) bombing in 1988. A belt laden with 700 g (1.5 lb) of RDX explosives tucked under the dress of the assassin was used in the assassination of former Indian prime minister Rajiv Gandhi in 1991.

The 1993 Bombay bombings used RDX placed into several vehicles as bombs. RDX was the main component used for the 2006 Mumbai train bombings and the Jaipur bombings in 2008. It also is believed to be the explosive used in the 2010 Moscow Metro bombings.

Traces of RDX were found on pieces of wreckage from 1999 Russian apartment bombings and 2004 Russian aircraft bombings. Further reports on the bombs used in the 1999 apartment bombings indicated that while RDX was not a part of the main charge, each bomb contained plastic explosive used as a booster charge.

Ahmed Ressam, the al-Qaeda Millennium Bomber, used a small quantity of RDX as one of the components in the bomb that he prepared to detonate in Los Angeles International Airport on New Year’s Eve 1999-2000; the bomb could have produced a blast forty times greater than that of a devastating car bomb.

In July 2012, the Kenyan government arrested two Iranian nationals and charged them with illegal possession of 15 kilograms (33 pounds) of RDX. According to the Kenyan Police, the Iranians planned to use the RDX for “attacks on Israeli, U.S., UK and Saudi Arabian targets.”

RDX was used in the assassination of Lebanese Prime Minister Rafic Hariri on February 14, 2005.

In the 2019 Pulwama attack in India, 250 kg of high-grade RDX was used by Jaish-e-Mohammed. The attack resulted in the deaths of 44 Central Reserve Police Force personnel as well as the attacker.

Semtex was developed and manufactured in Czechoslovakia, originally under the name B 1 and then under the “Semtex” designation since 1964, labeled as SEMTEX 1A, since 1967 as SEMTEX H, and since 1987 as SEMTEX 10. Originally developed for Czechoslovak military use and export, Semtex eventually became popular with paramilitary groups and rebels or terrorists because prior to 2000 it was extremely difficult to detect, as in the case of Pan Am Flight 103.

The Russian apartment bombings were a series of explosions that hit four apartment blocks in the Russian cities of Buynaksk, Moscow and Volgodonsk in September 1999, killing more than 300, injuring more than 1,000, and spreading fear across the country. The bombings, together with the Invasion of Dagestan, triggered the Second Chechen War. The handling of the crisis by Vladimir Putin, who was prime minister at the time, boosted his popularity greatly and helped him attain the presidency within a few months.

The blasts hit Buynaksk on 4 September and in Moscow on 9 and 13 September. On 13 September, Russian Duma speaker Gennadiy Seleznyov made an announcement in the Duma about receiving a report that another bombing had just happened in the city of Volgodonsk. A bombing did indeed happen in Volgodonsk, but only three days later, on 16 September. Chechen militants were blamed for the bombings, but denied responsibility, along with Chechen president Aslan Maskhadov.

A suspicious device resembling those used in the bombings was found and defused in an apartment block in the Russian city of Ryazan on 22 September. On 23 September, Vladimir Putin praised the vigilance of the inhabitants of Ryazan and ordered the air bombing of Grozny, which marked the beginning of the Second Chechen War. Three FSB agents who had planted the devices at Ryazan were arrested by the local police, with the devices containing a sugar-like substance resembling RDX.

II.

The movie Khartoum (1966) has General Charles Gordon traveling to Sudan in 1884 to quell the “mad mullah” the Mahdi. (Osama bin Laden of his day).
At the train station where General Gordon starts his trip, there’s a railway ad sign that promotes the use of “Wright’s Coal Tar Soap.”

This gives us a sign of the rise of the modern chemical industry.

III.

Think of “Sherlock Holmes” in terms of all the movies and TV series or the original stories and books:

Holmes has to explain to Watson how he survived the assassination attempt on him by Moriarty, “the Napoleon of Crime” who threw him off the Reichenbach Falls. Holmes explains that he faked Moriarty out and clung to a bush or something and was (obviously) not killed.

Holmes tells Watson what he does when he returns to civilization and travels and studies for some three years:

“I then passed through Persia, looking in at Mecca, and paid a short but interesting visit to the Khalifa at Khartoum, the results of which I communicated to the Foreign Office. Returning to France, I spent some months in a research into the coal-tar derivatives, which I conducted in a laboratory at Montpellier, in the south of France.”

The context implies the year 1894.

There is clear evidence that Mr. Holmes was deeply involved in the research of coal-tar derivatives as early as 1889 when the events of the Copper Beeches matter were transpiring.

We are told that on an evening in 1889, Mr. Holmes was seated in 221B Baker Street at the deal table loaded with retorts and test tubes. He was settling down to one of those all-night chemical researches in which he frequently indulged.

The research work was interrupted by a message of distress from Violet Hunter. Watson found that there was a train the next morning, and Holmes tells Watson:

“That will do very nicely. Then perhaps I had better postpone my analysis of the acetones as we may need to be at our best in the morning.”

It is clear that Holmes was engaged in coal-tar research long before his visit to Montpellier in the south of France.

The quotation from the Copper Beeches story refers to acetones, not to coal-tar derivatives.

“In the fractional distillation of coal-tar, the distillate separates into five distinct groups or layers, depending upon the stage of the process and the amount of heat applied. Category-one of the five includes benzene, toluene, xylenes and cumenes.

Acetones [dimethelketone-CH3COCH3] may be derived from the oxidation of cumene. And cumene [isopropylbenzene-C6H5C(CH3)2] is derived by distillation from the coal-tar naphtha fractions.”

Cumenes are derived from coal-tar, and acetones are derived from cumenes. Thus, a study of the acetones is, necessarily, research into coal-tar derivatives.

The rise of chemical engineering and organic chemistry are at the heart of the Sherlock Holmes stories.

Thus we can “climb” into chemistry via these books and movies and keep a feeling of enchantment as a kind of educational “shoehorn.”

India and the Russia-Ukraine War: The Paradox of Military Dependence, Traditional Loyalty and Strategic Autonomy

[from India in Transition, published by the Center for the Advanced Study of India (CASI) of the University of Pennsylvania, by Arndt Michael]

India, long-established as the world’s most populous democracy, has been quite instrumental over the years in assisting various countries dealing with democratic struggles. This support has included a blend of bilateral and multilateral initiatives, and especially economic development projects. Yet, India’s recent attitude toward the Russian attack on Ukraine and its concomitant behavior in the United Nations Security Council (as a non-permanent member) seems to contradict its support of democracy. By abstaining, rather than explicitly voting in favor of UN resolutions condemning Russian aggression at the beginning of the war, India angered several UN member-countries.

In order to substantiate its abstention from voting, India felt compelled to issue a so-called “Explanation of Vote” (EoV). In it, India asked for a “return to the path of diplomacy” and an immediate cessation of “violence and hostilities.” Crucially, India stated in the EoV that “the contemporary global order has been built on the UN Charter, international law, and respect for the sovereignty and territorial integrity of states…all member states need to honor these principles in finding a constructive way forward. Dialogue is the only answer to settling differences and disputes, however daunting that may appear at this moment.” 

While these statements and the call for dialogue are in accordance with India’s professed stance toward the relevance and objectives enshrined in the UN Charter, the discrepancy between rhetoric and practice is still conspicuous. At first glance, a “good” relationship with Russia seems to be more significant than the expectations of the world-community as represented in the United Nations. And, more importantly, by abstaining, India seemingly violated one of its central foreign and strategic policies: to always strive for strategic autonomy.

However, from a strategic perspective, India is precisely replicating what it did when the Soviet Union invaded Afghanistan. For India, its own national security is at stake, as well as its current and future geostrategic influence in Asia and the world. The military dependence that currently exists between India and Russia is nothing short of gigantic and has created a dangerous conundrum. Since the “Indo–Soviet Treaty of Peace, Friendship and Cooperation” was signed in 1971, defense agreements and long-term supply contracts have been in place. And while India and Russia have shared a strategic relationship since October 2000, this was upgraded in December 2020 to a “Special and Privileged Strategic Partnership.” 

Although there was a marked reduction of Russian imports in past years, official data from the Stockholm International Peace Research Institute (SIPRI) reveal that between 1996-2015, the Russian proportion of Indian military imports was almost 70 percent, and between 2016-20 it still hovered around 49 percent. In fact, 70 percent of all Indian military equipment currently in use has been directly produced in Russia, was manufactured with the majority of parts coming from Russia, or licensed by Russia. In 2020, this included the majority of Indian tanks, the only aircraft carrier (the INS Vikramaditya, a heavily modified Kiev-class aircraft carrier) with all of its combat aircraft MiG-29s, six frigates, four destroyers and the only nuclear-powered submarine. Additionally, eight out of fourteen Indian Navy submarines belong to the Russian Kilo-class. The Indian Air Force flies Sukhoi Su-30MKIs and Mil Mi-17s, which, respectively, constitute the largest share of the combat aircraft and utility helicopters, in addition to Russian tanker planes. India also just recently purchased the S-400 missile system.

Even though India has begun to reorient itself militarily toward other countries—the U.S., Israel, France and Italy—and has substituted foreign imports by slowly developing its own capabilities, a large number of new Indo-Russian projects are in the conceptual or implementation stages. In December 2021, in the frame of the so-called “2+2 Dialogue” (foreign and defense ministers), India and Russia began a new phase in their militarytechnological cooperation. Incidentally, India has used this very format for furthering cooperation in strategic, security and intelligence issues with four of its key strategic partners: Australia, the U.S., Japan and the newly added Russia. Russia and India agreed upon a further deepening of mutual military relations for ten years (until 2031). What is new is that next to the traditional purchase of Russian weapons systems, many common research projects and the development of new weapons systems—with their production taking place equally in both countries—have been agreed upon. This production includes new frigates, helicopters, submarines, cruise missiles and even Kalashnikovs

The depth of this mutual engagement, and especially India’s dependence, highlights a huge dilemma that might not only have drastic strategic consequences, but also long-lasting regional repercussions. The worldwide sanctions issued against Russia aim at the Russian economy and military. When it comes to the procurement of such crucial components as microchips or airline parts, Russia is soon expected to face shortages, essentially crippling its capacity to repair, construct, or have spare parts available (let alone construct new equipment). Unless other countries, such as China, circumvent international sanctions and step-in, the expected Russian inability to take care of its own military will have a spill-over effect. Russia is unlikely to be able to fulfill its contractual obligations toward India, and the lack of spare parts also has the potential to cripple India’s own military with regards to the Russian weapons equipment. The procurement agreements and common projects are, hence, all in jeopardy and India, now more than ever, depends on Russian goodwill. 

Next to military dependence, there are other concomitant effects in the economic and political sphere that influence Indian voting behavior. The worldwide sanctions have already led to dramatic increases in oil and gas prices, with India relying on imports of up to 80 percent. India will, therefore, have to pay much more for such crucial imports. Military imports from other countries aimed at substituting Russian equipment will also be much more expensive. All of this deals the Indian economy another blow—an economy that has been especially hit hard by the COVID-19 pandemic. And politically, Indian hegemony in South Asia has been markedly under pressure, in no small part because of the ChinaPakistan axis. In the eyes of India, this axis poses a serious threat to an already highly volatile IndoPakistan relationship. In addition, the IndoChina relationship reached a new low in May 2020 when Chinese infrastructure projects along the Himalayan borderlands led to fighting and the killing of soldiers. In addition, the Chinese claims to the South China Sea are categorically disputed by India. Chinese overtures toward Sri Lanka, the Maldives, and especially Pakistan in the frame of the Road Initiative are also regarded with growing discontent, as India claims that China is following a policy of encircling India.

In its 75th year of independence, India is following a classic realpolitik in trying not to alienate Russia while pledging rhetorical support for Ukraine. The contradictory consequence is that Russia has now offered more discounted oil, gas, and investments, while at the same time, the UK has suggested its military relationship with India could be upgraded—and has offered weapons made in the UK. For the Indian political establishment, India cannot forgo Russian support, militarily or as a producer of cheap oil and gas. Going forward, India’s military will need to protect its national security and project Indian influence and power well beyond its borders.

Arndt Michael is a Lecturer in the Department of Political Science, University of Freiburg (Germany), author of the multi-award-winning book India’s Foreign Policy and Regional Multilateralism (Palgrave Macmillan, 2013), and co-editor of Indien Verstehen (Understanding India, Springer, 2016). His articles have been published in Asian Security, Cambridge Review of International Affairs, Harvard Asia Quarterly, India Quarterly and India Review.