Science, culture, complexity

Tag: engineering

  • My political views

    Daily writing prompt
    How have your political views changed over time?

    When I first had any views at all, I think I was in the second year of my engineering studies, in 2007, and decided I was a right-winger. Of course I understood very little of what that meant at the time, but I had some inkling. Among other things my and my fellow students’ education at the time repeatedly told us that the state was too slow at getting things done, that what was possible (according to engineers) was far ahead of what the people on the ground actually got, and that we had to prize private innovation. And of course that getting rich was a completely innocent and harmless desire. We neither had nor received much social grounding: work was work, and we excelled if we did as we were told, with the only difference between ourselves being how well we did those things.

    The situation actually really changed for me when I joined the Asian College of Journalism in 2012, where the political environment was almost entirely the opposite, with leftist and more (in hindsight) progressive ideas doing the rounds. But more than the school itself, I made a friend there who put me in touch with Thomas and the local writers’ group he’d co-founded, Them Pretentious Basterds. They were a wonderful lot. More than persuade me to change my political beliefs, I credit them with teaching me to think intelligently about political issues. As with ACJ, they were also ideologically closely aligned but all of them were fervent debaters, too, on matters both trivial and significant. Since then, I think I haven’t associated myself with any one particular ideology. If you really pushed me, though, I’d probably say I’m a social democrat.

    In case it matters, here are my positions in full:

    1. Economically, I’m left of centre. I don’t trust markets more than the state. I wish to curb corporate power, tax the richest most, strengthen labour protections, and protect local industry. I do think privatisation can improve quality but not in education or healthcare.

    2. I want state-guaranteed healthcare, largely state-funded education, and am okay with inequality only if there’s also perfect social mobility. I support cash transfers to the poor and heavy subsidies for essentials.

    3. I want a neutral, non-privileging state on religion, reject legal enforcement of traditional gender/family roles, and support affirmative action, robust free speech with reasonable limits, strong protections for migrants, and full LGBTQ+ rights.

    4. I believe traditions have some legitimate legal weight but only within a framework that’s otherwise very protective of individual rights.

    5. I don’t want environmental rules to be relaxed to accommodate economic growth and I expect rich countries to do more. At the same time, I’m willing to prioritise better access to energy even if it means using more fossil fuels for now. I moderately support curbs on individual consumption. I reject carbon pricing as a tool of climate change mitigation.

    6. I’m against harsh punishments and the death penalty. I think national security laws and pre-trial detention are overused. I’m very much in favour of protests and strongly opposed to internet or social-media shutdowns for the state to maintain ‘order’.

    7. I’m somewhat open to expanded powers of surveillance. However, I want well-defined and well-articulated limits and strong civil rights. I’m wary of the state policing content.

    8. I want courts and regulators to be able to block or reshape government decisions and prefer slow consensus over muscular leaders. I favour strict limits on how political parties can raise and use money, with complete and timely transparency. I want public media to be insulated from both state and corporate capture and support decentralisation to states or cities. I’m moderately confident that elections reflect the popular will.

    9. I want international law and multilateral bodies to meaningfully constrain states. I favour heavy public investments in science and digital infrastructure and strong regulation of technology companies, especially on matters of user data and platform use.

    10. I want intellectual property rights to be relaxed for medicines, green technologies, and basic knowledge goods.

    All this said, I still fondly remember what a troll on Twitter once called me: “a Marxist in the garb of a science educator”.

    Recently, when India’s prime minister’s office decided to feature the country’s new Chenab railway bridge in Jammu and Kashmir on its invitation cards for Independence Day 2025, I wrote in The Hindu about the political ideas embedded in the practice of (civil and mechanical) engineering, especially of the uncritical variety, i.e. one the country’s middle class has famously exercised for several decades now as a means of class mobility alone. In the process, however, right-wing ideologies have come to see in the profession a secular ideal exemplified by its exponents sticking to doing as they’re told.

  • Four years

    Engineering as a methodology … contains a fundamentally materialist kernel, even if its present incarnation as a bourgeois science drives engineers to think and behave otherwise.

    — Nick Chavez, Engineers, Materialism, and the Communist Method

    After school, I studied mechanical engineering against my will. Most engineering students at the time did, and probably still do. Almost every Indian family not in the top 1% of the top 1% (it’s still a large number given the population) of society by wealth would like to get there. And to this day studying to be an engineer or a doctor seems like the safest bet to ensure families get onto and/or stay on that path.

    My family was the same way in 2006. I insisted I wanted to study English literature but my folks were having none of it. When push came to shove, I yielded and said I’d study mechanical engineering only because my father had, too, 24 years earlier. The next four years turned out to be terrible. While it might seem straightforward enough from the outside, having to endure four years of something one is not at all interested in, especially when one is keenly aware that four years amounts to fully one-fifth of one’s life by that point, is corrosive to the spirit. It certainly made my future seem quite bleak to me, more so since I’d internalised my stream of poor grades to mean I was unfit to make it in this world.

    Fortunately (such as it was), my folks relented in my third year and faced me with the freedom to decide what I’d do after engineering college. Thus I picked journalism, figuring I could combine my fondness for writing with the prospect of making some money, at least more than a career in English literature in India might have yielded. It remains among the best decisions I’ve ever made — but as it would later turn out, thanks in no small part to my background as a trained engineer.

    A recurring motif I’ve observed in journalism as it is practised is that people who enter it with skills from a completely different field almost always have an advantage right away (while those who came in after having studied only journalism don’t). There are many ways to classify the activities and rituals of journalism and one is in terms of generalists and beat-experts. (I’m using ‘expertise’ here to mean the “temporary expertise” as Bora Zivkovic defined it.) I for example am a beat-expert: I focus on science, environment, and space journalism. I regularly commission articles from freelancers, among whom there are generalists and beat-experts as well. The generalists here will be comfortable covering a variety of topics (often as long the subject matter in each case isn’t too involved) whereas the beat-experts might be restricted to, say, RNA viruses, radio astronomy, solar power economics or number theory. Even at the newsroom level, there are generalist reporters who can hammer out news reports with all the right details in the right order and beat reporters who are better equipped to dive deep into specific topics.

    Notably, however, beat-experts are generally valued more. There are a few reasons why. Beat-experts can if required competently put together a copy on a completely different beat; depending on the beat, they can be hard to come by; and — this is perhaps most important — by virtue of understanding a topic more deeply than others, they can communicate ideas and developments therein much better. It’s even better if through one’s work as a journalist one is able to bring together the “two cultures” à la CP Snow, that is to draw on insights and wisdom from both science and the humanities to inform the way one covers different subjects. Then one’s value will soar (assuming there are also editors or employers that are able to discern that value).

    In the last week alone, in fact, my regret over having spent four years studying the physics and mathematics underlying engineering has been significantly mitigated by the particular events in the news. Air India flight AI171 crashed shortly after take-off in Ahmedabad, killing 241 of the 242 people onboard and concluding as one of India’s worst air disasters. To quote from my piece in The Hindu, “The engine design is an important reason for 787-8 aircraft’s higher fuel-efficiency per seat… The other factors contributing to this feature include the use of carbon composite structures of lower weight and low-drag aerodynamics. [Thus] a 787-8 aircraft burnt around 20% less fuel than earlier twinjet models of a similar size. This allowed the aircraft to undertake nonstop flights between cities with lower passenger traffic than that required to fill Boeing 777 or Boeing 747 aircraft.” Depending on what investigators find from the black box, there’s a nontrivial chance one of these three components was part of the cascade of problems leading up to the crash, and may in turn reveal the processual failures that preceded it.

    The Axiom-4 commercial mission to the International Space Station was delayed for a fourth time before SpaceX called it off altogether following a gas leak onboard the rocket. The engineering factor here is less obvious, especially as it relates to a curious statement ISRO issued on June 13: that ISRO had recommended to SpaceX that the latter — the company that actually built the rocket for the mission and has flown it hundreds of times before — “carry out in-situ repairs or replacement and conduct a low-temperature leak test to validate system performance and integrity, before proceeding with launch clearance”. ISRO may not be lying but why, given how rockets are tested and certified for flight, would SpaceX care for ISRO’s opinion on the way forward here?

    Last: Israel launched what it called a “preliminary” attack against Iran in order to dissuade it from pursuing its nuclear weapons programme. The attack followed a day after the International Atomic Energy Agency resolved that Iran had failed to comply with the terms of a 1974 agreement that, among other things, demanded the country be accountable at all times about the use of enriched uranium for civilian v. military applications. Now, I’ve been interested in nuclear news from around the world since a brief interaction with MV Ramana more than a decade ago, but my background in engineering — which I was now forced to dust off and retrieve from the recesses of my mind — certainly helped lubricate my comprehension of uranium enrichment. And that in turn revealed like little else could how rapidly Iran was advancing towards possessing nuclear warheads, how and why the IAEA safeguards are limited (and why Iran’s willing participation in inspectors’ surveillance is so important), and ultimately why Israel is so nervous.

    Broadly, having a degree in X field and getting into Y field confronts you more often than otherwise with situations where you’re forced to learn on the fly, using your own mental models but often with models you’ve acquired learning something entirely different. In my case at least, this switch allowed me to think about certain ideas in ways that others weren’t. English literature followed by journalism could have had the same effect, although I only know that in hindsight. Just like I was forced to adapt engineering thinking to social issues and vice versa, English literature, which is after all a literary window into history, certain geographies, certain peoples, and the writers, readers, philosophers, and politicians among them, could allow one to compare/contrast whatever is happening today around us with what we know did in the past — an exercise I’ve always found to be illuminating.

    (Edit: my friend Chitralekha Manohar helped me see that I also presumed a certain willingness to learn in order for an X-to-Y switch to manifest all its benefits. Chitralekha is a professional editor who runs The Clean Copy in Bengaluru. As she put it: “What I mean to say is, it’s very easy for an English literature student to find science writing by a scientist to be boring. But I really like it. And it might have something to do with a personal project to understand language and communication at a level more than is necessary to get the degree. It’s the recurring question of why some of us are like this…”.)

    Engineering offers yet another lens through which to observe the world as long the observer doesn’t lose sight of everything else, especially the social, political, economic, etc. aspects. This is hardly new information but perhaps the corollary is: all these other lenses through which to observe the world may also offer an incomplete picture if they overlook what engineering is uniquely equipped to reveal. Of course I presume here a particular kind of engineering education: learning the basics of physics, chemistry, and mathematics followed by specialised training in the principles and techniques of the specific ‘branch’, i.e. mechanical, chemical, biotechnological, electrical, software, etc.

    In fact, I grudgingly admit that even though I barely cleared all these papers, the residues of lessons on calculus, metrology, vector algebra, fuzzy logic, and so on have sufficed to maintain a picture in my mind of how the world works and, importantly, how it can’t, won’t or shouldn’t — although defining these three boundaries also demands political awareness and a sense of social justice. Thus for example one becomes able to spot pseudoscience but also understands that sometimes it needs to be treated with compassion if for no other reason than that it was born of the failure of science to meet particular human needs.

    More broadly, materialism has historically exerted a sizeable influence on human societies, their institutions, and their aspirations, and continues to do so. As a result, to go back to the engineer and communist Chavez, “the social relations tying global industry together are obscured underneath an engineering methodology”. Even for its contemporary identity as a “bourgeois science”, then, the engineer’s enterprise is arguably necessary if we’re to retool human industry.

    Closer home, I think I’m finally not resenting those four years.

  • ‘Poverty first, Mars next’ is a non-idea

    The Copernican
    April 4, 2014

    I am on nobody’s side because nobody is on my side.” – Treebeard, Lord of the Rings

    Thanks to two wonderful pieces in the April 3 edition of The Hindu (by D. Balasubramanian andR. Prasad) talking about how scientific enterprise in India has been constantly undermined, it’s pretty clear that there is a perception schism between the fantasies of and the reality of publicly funded scientific development in the country. The underminers in question have been bureaucracy and, periodically, ignorance by the Indian polity – of late, in the form of political manifestos choosing to leave out scientific agendas in favour of more populist schemes.

    But with bureaucracy, that is only to be expected. What is not is that, beyond a circle of scientists and science communicators, people seem to be okay with it, too. And this exclusion from the scheme of things has become two-pronged. Among the people, science has been malleated into the form of an unpredictable tool to further our developmental goals. Among the politicians, science has become a thing whose fundamentals can be called into question to pander to political expediency.

    Sadly, scientific research and development has been instrumental to India’s progress since even the British Raj, when the construction of factories, transportation routes and communication lines (including what is still one of the world’s largest railway networks) helped dismantle feudalism. After Independence, however, a series of unfortunate mistakes have come together to knock the scientific temperament out of its rightful place in governance.

    As Dr. Mathai Joseph told The Hindu, “The fact that scientific departments are modelled on the rest of the bureaucracy has turned out to be a big mistake. That’s because bureaucracy is not designed to encourage innovation.”

    Who runs the science?

    In August 2012, Colin Macilwain had touched on a similar topic with a piece in Nature titled ‘What matters for science is who runs the country‘. Working on the reasonable assumptions that a) researchers would want someone in the government to further their interests, and b) a government would want a scientist on its side to hone policies, Macilwain suggested that the role of a Scientific Adviser was to bridge the political and scientific classes.

    Over the years, however, the Indian chief SA’s role, though continuing to attempt to bridge this divide, has become steadily less effectual. At least as far as C.N.R. Rao is concerned: he set up the IISERs and the Science and Engineering Research Board (SERB), which serve important goals in their own right but also fall prey to the effects of a bureaucratic administration. Moreover, though there has been a growing demand from the scientific community to get the Indian government to spend more than 1% of its GDP on R&D, there is no concerted call from either side to establish a mechanism to ensure that grants are allocated purely on merit, and thereafter to ensure accountability in spending.

    In the Vote of Accounts presented by FM P. Chidambaram on February 17, point #74 did proposesomething remedial (albeit as a tax-redemption measure): “I … propose to set up a Research Funding Organisation [RFO] that will fund research projects selected through a competitive process. Contributions to that organisation will be eligible for tax benefits. This will require legislative changes which can be introduced at the time of the regular Budget”

    Incidentally, when Rao helped set up the SERB in 2008, its stated aim was to promote research in the basic sciences and provide financial assistance to those who engaged in it. Detrimentally, its Board is chaired by a secretary to the Government of India, and 7 of its 16 other Board members are government agents. As for how likely the next government is to pursue the RFO: I don’t know, but I don’t have my hopes up. For as long as grant-allocation and the government remain strongly coupled, not much is likely to change.

    In fact, the government’s involvement is not limited to grants but also extends to issues of autonomy, such as in the appointment of Chancellors or Vice-chancellors, all of which together directly affects the quality and direction of research undertaken. And the situation is only likely to worsen, as D. Balasubramanian mentions in his article, when educational institutions like IITs and IIMs are proposed to be set up to make political amends.

    I write all of this, of course, keeping in mind the following lines from the April 3 Speaking of Sciencecolumn in The Hindu: “The central finance ministry, with one stroke of a pen, has cut the operating budget of all science departments by almost 30 per cent of the originally sanctioned amounts. As a result, the science ministries and departments have defaulted in their grant payments and in some instances even salaries. Many young research students are yet to be paid their monthly fellowship money.”

    Good idea, bad implementation

    Simultaneously, it would seem the government has acquired a bias over the years about the sectors it considers strategic and those it considering available for politically expedient manipulation. The former section accommodates areas like social policies, domestic policies, defence, PDS, employment, etc. The latter accommodates areas like scientific research – but not all of it.

    Consider how areas like telecommunication and nuclear physics have received substantial monetary and infrastructural support from the government, while astronomy and materials science lag behind. This divisive addressing of different disciplines has also resulted in a fractious working environment for scientists: collaborations are too few and far between, and interdisciplinary R&D is stifled. If thewords of Luiz Davidovich, a Brazilian researcher speaking at the World Science Forum in Rio de Janeiro, are to be believed, this is a problem plaguing the world’s emerging powers. Perhaps this is one of the most important lessons we should be learning from the USA and the EU.

    The government, in its choice of subjects, has also been limited by its own middling knowledge of how likely these enterprises are to elevate sections of the Indian population out of poverty and toward better access to the basic amenities (if not to further vested interests, of course). This is again an instance of expediency and is not sustainable for the scientific community because it implies a support-structure that requires scientists to submit to the government’s agenda. The ideal situation would have the roles well balanced, to see scientific research blossom to improve the quality of all walks of life.

    Now, the country’s any meaningful scientific output geared at improving the quality of life in the country is becoming poisoned by government mismanagement. For instance, while many countries have been able to engender a healthy debate on whether a nuclear power plant should be built or if GM crop seeds should be sold, a pall of negativity has descended on these subjects in India because we are unable to separate the DAE from nuclear power generation and the DBT from genetic modification. We must thank a stubborn lack of transparency for this.

    Scientific research as an industry

    If the fantasy of a fully decoupled government support and government funding were to be realised, and the screen of bureaucracy lifted from our institutions, we would have the chance to be better organised with our research interests. Put practically, we wouldn’t have to fund a fusion project in France because we’d have the temperament to develop a low-cost alternative in India itself (where labour continues to be cheap).

    Those in power should know that science, as an organised articulation of human curiosity, is capable of developing products, services and technologies that go beyond alerting farmers of approaching storms or reducing the cost of a smartphone to less than one-plumbed-toilet. Scientific research can also found industries (opening up the thousands of jobs that campaigning politicians promise to the marginalised sections of the electorate), engage graduating scholars (the number of research degrees awarded increased by over 50% between 2008 and 2011, to 16,093, according to a UGC report), elevate the quality of education in the country, promote innovation (by reducing the time taken for a prototype engineered in the lab to a product mass-produced – an important mechanism for labs to prove useful in the eyes of the tax-payer), and cure diseases (did you hear about the Foldscope?).

    In fact, those who clamour that India should be alleviating poverty before launching satellites to Mars should shed a sadly prevalent impression of scientific research and technological development that precludes incentives such as job-creation and technology-transfer. Scientific R&D is an industry – rather, can be – like any other. By launching a satellite to Mars (hopefully Mangalyaan will make it), technicians at ISRO now have the capability to coordinate such sophisticated programs. They could also possibly bring in revenue in the future by affording high-load launch-vehicles like the GSLV for developing countries that can’t cough up for the American/European coffers. And in the midst of all this, we must not over-celebrate the frugal budget with which we achieved this feat but use it as an opportunity to ask for incrementally more funding.

    In another example, India designed and manufactured some of the superconducting magnets, accelerator heater protection systems and cryogenic facilities used to operate the Large Hadron Collider in Europe. Such components are also commonly used in medical imaging and diagnostics, and India already has a burgeoning medical tourism industry which, according to some estimates, is going to be worth Rs.9,500 crore in 2015. Thus, it seems we also stand to gain if only we could leverage local talent in devising products tailored for the Indian consumer.

    As Rahul Sinha, a professor at the Institute of Mathematical Sciences, Chennai, remarked: “Physics is a technology developer.” So this schism between ‘blue sky’ scientific research and India’s developmental hurdles is one that, in an ideal world, doesn’t exist. That it does in our country is thanks only to a government’s mismanagement of its powers.