Monday, June 22, 2020

US Sanctions versus Iran’s fight against COVID-19 pandemic

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Aditi Mohta

Article Title

US Sanctions versus Iran’s fight against COVID-19 pandemic

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Global Views 360

Publication Date

June 22, 2020

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Coronavirus patients at Imam Khomeini Hospital, Tehran

Coronavirus patients at Imam Khomeini Hospital, Tehran | Source: Mohsen Atayi via Wikimedia

Iran is the hardest-hit country by the coronavirus pandemic in the middle east. The contagion was first detected on 19 February 2020 in the holy city of Qom, and thereafter spread quickly across the country. As of 18th June 2020, it had over 9000 coronavirus related fatalities. The virus attacked all the 31 provinces of the country not discriminating between the common man and the people at high places including the members of the Parliament, religious leaders and senior ministers. The crisis touched most parts of the country, but it most severely impacted working and the poor class. 

The Iranian government has been criticized for its response towards the pandemic. The health care policy, which has been politicized, has preferred denial and misinformation as a response to the crisis the pandemic brought with it. Questions have also been raised about the role of US sanctions in crippling Iran’s economy, public health facilities and public health facilities. All these factors, when combined, have disabled Tehran (the capital of Iran) from providing the best response to the pandemic. 

What do the sanction laws say?

According to the Office of Foreign Assets Control, the US has “consistently maintained broad exceptions and authorizations to support humanitarian transactions with Iran.” The first significant sanctions were imposed in 1995 by Bill Clinton, and in 2001 exemptions for medical goods and medicine first came into effect. These sanctions have periodically widened the scope of products for exemption, and by 2012, the exclusions included agricultural products and most foods. After the world powers, including the US, reached a deal with Iran on its nuclear programme in 2015, the sanctions were lowered against Iran. This approach was abandoned after Trump withdrew the US from the deal and sought to force Iran’s leaders to change their anti-US policy. .

The US sanctions are enforced through a wide array of instruments. Financial sanctions prohibit US banks from transacting with Iran, which limits Iran’s access to dollar-denominated transactions. Secondary sanctions measures also target non-US entities that have dealings with Iran, thus at a risk of facing prosecution in the US. These sanctions make transactions with Iran lengthy and complicated, and even impossible in some cases

There are some exemptions from sanctions for humanitarian assistance (sale of agricultural commodities, food, medicine and agricultural services). Despite these exemptions, sanctions have severely impaired Iran’s ability to be able to finance humanitarian imports. Given the volume of complexity and due diligence involved, most banks are reluctant to deal with Iran. This makes it difficult to find a way to pay for purchases difficult for Iran. Also many items require additional authorization because the US considers them as “dual-use” (the things might also be used for defence- for example, the sort of oxygen generators that are needed in life support machines used to treat coronavirus cases). Lastly, the sanctions on Iran’s oil exports led to a decline in revenue, further weakening Iran’s currency, which has left the country vulnerable and with fewer resources to pay for non-sanctioned items as well. 

All these put together have directly caused shortages of medical equipment and impacted Iran’s health sector negatively. This has also impacted the capability of Iranian healthcare sector to effectively manage the COVID-19 situation.

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February 4, 2021 5:20 PM

Remembering Dr. Stephen Hawking: One of the greatest physicists of our times

The last 50 years have produced some of the most fascinating ideas from physics which have ever been known to us mere mortals. Whether it is the idea of string theory where the world is made of tiny strings smaller than whatever lengths we can possibly encounter or whether it is the astonishing revelations that we possibly do not understand 96% of what constitutes the Universe, all of these brilliant ideas have caught the attention of both professional physicists and the normal population alike. This has also shot loads of world class physicists to limelight, with the likes of Roger Penrose, Edward Witten, Juan Maldacena, Abhay Ashtekar and Erik Verlinde amongst a huge number of physicists who have achieved great public acclaim for their work on Gravitational theories while the likes of Alan Guth, Andrei Linde, Paul Steinhardt, Jim Peebles amongst others have become famous names for their groundbreaking work in Cosmology. But perhaps the best-known figure of theoretical physics in the last half century has been someone who, despite all kinds of odds stacked against him, has contributed deeply to both Gravitational Physics and Cosmology, and his name is Stephen Hawking!

The depth and the length of Hawking’s scientific discoveries can not possibly be described to their full glory in one single article and that speaks volumes of the kind of incredible physics he pursued throughout his life. But intriguingly enough, physics was not what a young Stephen was supposedly going to do in his life. Stephen was born into a family which placed a high value towards a good education, as his father, Frank, was a medical researcher while his mother, Isobel, (having read Philosophy at Oxford, where she met Hawking’s father) was a secretary at a medical institute. While Hawking was named “Einstein” in his school days, his father actually wanted him to also study medicine like him. However, the young Stephen was actually fond of mathematics and since Oxford - where he pursued his undergraduation - didn’t offer a Mathematics degree at the time, he decided to major in Physics instead. Slowly, he gained an incredible amount of interest towards Physics although he was a conventionally “lazy” student throughout his undergraduation. He would not study seriously as he found most of work really easy and interestingly enough, it was the boat club in his university which slowly propelled him towards putting efforts as a student.

When Hawking started his PhD in Cambridge, he was quite disappointed to have not been made a student of legendary astronomer Fred Hoyle, instead he was made a student of Dennis Sciama. This proved fortuitous however, as Sciama was incredibly knowledgeable about almost everything in Cosmology and eventually became a central figure in British Cosmology. It was through him that Hawking got to meet his life-long collaborator and recently awarded Nobel Prize Winner, Sir Roger Penrose.  The meeting with Penrose, who was then working on some bewildering properties of the Black Hole, proved to be a pivotal moment of Hawking’s career. Penrose had shown in a general way the existence of space-time singularities, which is a point inside the black hole where the known laws of Physics, like General Relativity, collapse. Hawking used Penrose’s theorem to show that if one completely rewinds the entire history of the universe, then one would reach exactly to the kind of point which Penrose had described for a black hole; a Space-Time or in this case the Big-Bang Singularity.

Dr. Stephen Hawking at official opening of the Weston Library, Oxford, England | Source: John Cairns via Wikimedia

This idea shows that the universe began from an infinitesimally small point of seemingly infinite density, and hence, Einstein’s seminal theory of General Relativity also fails to explain the properties of the Universe at the time of its creation. This work of Hawking came to be of an astounding magnitude, and this has propelled work on loads of theories both of the early universe and even towards considerations of modifying General Relativity itself! This excellent work got Stephen his doctorate degree at Cambridge, a fact made even more stupendously inspirational considering that he was diagnosed with the Motor Neuron Disease by this time which made him completely paralyzed. He was in a state of depression after being diagnosed with this disease with doctors claiming that he had not much time left to live. It was then through the support of his family and his girlfriend (who soon became his wife) that got him through a very dark realization and motivated him to again pursue physics to the best of his abilities.

After his great work on the Big Bang, Hawking shifted his attention quite literally towards Black Holes. He produced a number of incredible theorems regarding them with Sir Penrose, which are now known as “Penrose—Hawking singularity theorems”. He was also collaborating vigorously with James Bardeen and Brandon Carter at this time, and together they produced some excellent work which showed how Black Holes could lose energy. Around the same time Jacob Bekenstein (who was then a PhD Student at Princeton University) showed that there had to be the existence of some quantum mechanical effects which would lead to the Black Hole having a so-called “entropy” (which is the classical measure of the disorder of a physical system). On the basis of his work with Carter and Bardeen with considerations to Bekenstein’s ideas, Hawking then showed that Black Holes lose energy by radiating it away through a particular mechanism. Considering Einstein’s seminal idea of Mass-Energy equivalence through E=MC2, this incredible work of Hawking meant that Black Holes actually lose Mass by radiating it away in a process now fittingly known as “Hawking Radiation''. Hawking Radiation has become a central idea in studies of Black Holes, Quantum Gravity and the very early universe, and was the key idea which propelled the concept of “Primordial Black Holes”, which refers to the Black Holes which were created in the very early universe. Recently there has been a lot of work which points towards the realization that these primordial black holes may constitute a huge part, if not all, of the dark matter in the universe (which is a mysterious form of matter which forms approximately 23% of the universe). If it is indeed the case, then Hawking’s work will inadvertently be the propeller towards the understanding of dark matter.

Throughout the time in which Hawking did all the above-mentioned work, his research was up there with the finest (if not the finest itself!) on gravitational physics and cosmology in the world. In his later years, Hawking became fascinated with even more exotic ideas which ranged from understanding quantum gravity (the theory of gravity at the smallest scales) and the Multiverse (the idea of an infinite number of universes) to the prospect of Extraterrestrial life and Time Travel. He produced some really insightful work on Quantum Gravity, and his work on Hawking Radiation has fueled loads of work in quantum gravitational theories like String theory and Loop Quantum Gravity. He even hosted a party for time travelers and discussed in length about Aliens & the effects of AI on humans in his later life.

But let’s end this very brief note of his life with this anecdote. Somak Raychoudhary, the current director of IUCAA in India, reminisces how he once met Sir Penrose’s office during his PhD days in Oxford about the allowance to attend one of his classes. Penrose was discussing some work with another PhD student at that time and was startled when he heard Somak’s surname. He said “ Are you related to the Raychoudhary?”. Somak was startled by hearing this and asked who it was that Penrose referred to. Penrose then exclaimed that he was referring to Amal Kumar Raychaudhuri, the Indian astrophysicist who discovered a seminal equation known by his name as the “Raychaudhri Equation”. When Somak told that he had indeed taken classes from Professor Amal, Penrose was very happy and immediately granted him permission to attend his classes. At this, the quiet PhD Student sitting with Penrose said to Somak “ We (him and Penrose) are incredibly inspired by his work and wish to meet him once in person “. That PhD Student was none other than Stephen Hawking and goes to show, the incredibly high regard Raychaudhri’s work is held in, while the general Indian don’t know much about him.

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