Science, culture, complexity

Tag: research and development

  • Anti-softening science for the state

    The group of ministers (GoM) report on “government communication” has recommended that the government promote “soft topics” in the media like “yoga” and “tigers”. We can only speculate what this means, and that shouldn’t be hard. The overall spirit of the document is insecurity and paranoia, manifested as fantasies of reining in the country’s independent media into doing the government’s bidding. The promotion of “soft” stories is in line with this aspiration – “soft” here can only mean stories that don’t criticise the government, its actions or policies, and be like ‘harmless entertainment’ for a politically inert audience. It’s also no coincidence that the two examples on offer of such stories skirt the edges of health and environmental journalism; other examples are sure to include reports of scientific discoveries.

    Science is closely related to the Indian state in many ways. The current government in particular, in power since 2014, has been promoting application-oriented R&D (a bias especially visible in budgetary allocations); encouraging ill-prepared research facilities to self-finance; privileging certain private interests (esp. the Reliance and Adani groups) vis-à-vis natural resources like coal, coastal zones and spectrum allocations; pillaging India’s ecological commons for industrialisation; promoting pseudoscience (which further disempowers those closer to society’s margins); interfering at universities by appointing vice-chancellors friendly to the ruling party (and if that doesn’t work, jailing students on ridiculous charges that include dissent); curtailing academic freedom; and hounding after scientists and institutions that threaten its preferred narratives.

    With this in mind, it’s important for science journalism outlets and science journalists to not become complicit – inadvertently or otherwise – in the state project to “soften” science, and start reporting, if they aren’t already, on issues with a closer eye on their repercussions on the wider society. The idea that science journalism can or should be objective the way science is is nonsensical because the idea that science is an objective enterprise is nonsensical. The scientific method is a technique to obtain information about the natural universe while steadily subtracting the influence of human biases and other limitations. However, what scientists choose to study, how they design their studies and what is ultimately construed to be knowledge are all deeply human enterprises.

    On top of this, science journalism is driven by journalists’ sense of good and bad: We write favourably about the former and argue against the latter. We write about some telescope unravelling a long-standing cosmogonic problem and also publish an article calling out homeopathy’s bullshit. We write a scientific paper that uses ingenious methods to prove its point and also call out Indian academia as an unsafe space for queer-trans people.

    Some have advanced a defence that simply focusing on “good science” can inculcate in the audience a sense of what is “worthy” and “desirable” while denying “bad science” the platform and publicity it seeks. This is objectionable on two counts.

    First, who decides what is “worthy”? For example, some scientists, especially in the ‘senior’ cadre and the more influential and/or powerful for it, make this choice by deferring to the wisdom of scientific journals, chosen according to their impact factors, and what the journals have deemed worthy of publishing. But abiding by this heuristic only means we continue to participate in and extend the lifetime of the existing ways of knowledge production that privilege white scientists, male scientists and richer scientists – and sensational positive results on topics that the scientists staffing the journals’ editorial boards would like to focus on.

    Second, being limited to goodness at a time when badness abounds is bad, at least severely tone-deaf (but I’m disinclined to be so charitable). Very broadly, that science is inherently amoral is a pithy factoid by this point. There have been far too many incidents in history for anyone to still be able to overlook, in good faith, the fact that science’s prescriptions unguided by human morals and values are quite likely to lead to humanitarian disasters. We may even be living through one such. Scientists’ rapid and successful development of new vaccines against a new pathogen was followed by a global rush to acquire enough doses. But the world’s industrial and economic powers have ensured that the strongest among them have enough to vaccine their entire populations more than once, have blocked petitions at global fora to loosen patents on these vaccines to expand manufacturing and distribution, have forced desperate countries to purchase doses at prices higher than those for developed blocs like the EU, and have allowed corporate behemoths to make monumental profits even as they force third-world nations to pledge sovereign assets to secure supplies. It’s fallacious to claim scientific labour makes the world a better place when the fruits of such labour must still be filtered, like so much else, through the capitalist sieve.

    There are many questions for the science journalist to consider here: why have some communities in certain countries been affected more than others? Why is there so little data on the vaccines’ consequences for pregnant women? Do we know enough to discuss the pandemic’s effects on women? Why, at a time when so many scientists and engineers were working to design new ventilators, was there no unified standard to ensure usability? If the world has demonstrated that it’s possible to design, test, manufacture and administer vaccines against a new virus in such a short time, why have we been waiting so long for effective defences against neglected tropical diseases? How do the racial, gender and ethnic identifies of clinical trials affect trial outcomes? Is it ethical for countries that hosted vaccine clinical trials to get the first doses? Should we compulsorily prohibit patents on drugs, therapies and devices important to ending pandemics? If so, what might the consequences be for drug development? And what good is a vaccine if we can’t also ensure all the world’s 7.x billion people can be vaccinated simultaneously?

    The pandemic isn’t a particularly ‘easy’ example either. For example, if the government promises to develop new supercomputers, who can use them and what problems will they be used to solve? How can we improve the quality and quantity of research conducted at institutes funded by state governments? Why do so many scientists at public universities plagiarise scientific papers? On what basis are the winners of the S.S. Bhatnagar Award chosen? Should we formally do away with subscription-funded scientific journals in favour of open-access publishing, overlay journals and post-publication peer-review? Is methane really a “clean fuel” even though its extraction and transportation will impose a considerable dirty cost? Why can’t we have more GM foods in the market even though the science is ‘good’? Is it worthwhile to invest Rs 10,000 crore in a human spaceflight programme that lacks long-term vision? And so forth.

    Simply focusing on “good science” at our present time is not enough. I also reject the argument that it’s not for science journalists to protect or defend science simply because science, whatever it’s interpreted to mean, is not the preserve of scientists. As an enterprise rooted in its famous method, science is a tool of empowerment: it encourages discovery and deliberation; I’m not sure if it’s fair to say it encourages dissent as well but there is evidence that science can accommodate it without resorting to violence and subjugation.

    It’s not for nothing that I’m more comfortable holding up an aspirin tablet for someone with a headache than a jar of leaves from the Patanjali Ayurved stable: being able to know how and why something works is power in the same way knowing how the pharmaceutical industry manipulates markets, how to file an RTI application, what makes an FIR valid or invalid, what the election commission’s model code of conduct stipulates or what kind of land a mall can be built on is power. All of it represents control, especially the ability to say ‘no’ and mean it.

    This is ultimately what the GoM report fantasises about – and what the present government desires: the annulment of individual and institutional resistance, one subset of which is the neutralisation of science’s ability to provoke questions about atoms and black holes as much as about the circumstances in which scientists study them, about the nature, utility and purpose of knowledge, and the relationships between science, capital and the state.


    Addendum

    In January 2020, the Office of the Principal Scientific Adviser (PSA) to the Government of India organised a meeting with science journalists and communicators from around the country to discuss what the two parties could do for each other. Us journalists and communicators aired a lot of grievances during the meeting as well as suggestions on fixing long-standing and/or particularly thorny problems (some notes here).

    In light of the government’s renewed attention on curbing press freedom and ludicrous suggestions in the report, such as one by S. Gurumurthy that the news should be a “mixture of truth and untruth”, I’m not sure where that leaves the PSA’s plans for future consultation nor – considering parts of the report seemingly manufactured consent – whether good-faith consultation will be possible going ahead. I can only hope that members of this community at least evoke and keep the faith.

  • ‘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.