New Digital Tools To Protect From Infection, Neutralize Covid-19

There seems to be some light at the end of the dark tunnel of a serious biological threat that the world is passing through, since the nightmarish last seven months. The COVID-19 pandemic has spread to 213 countries and territories, and the number of new cases is continuously rising. According to reports, the severity of the situation has already re-shaped our society, more than ever before.

In tandem, reports are arriving from most countries, testifying the tremendous commitment of the governmental, scientific and clinical communities, to help local populations dealing with the pandemic. Scientists are still far from having a complete picture of the pathophysiology of this dangerous disease, including its long-term implications on individuals.

Amid this challenge, round the clock search for a life-saving and long-term pathway to outmatch the fast-spreading Covid-19, seems to be coming to fruition, soon. If everything materializes as expected, Covid-19 vaccines may be available by the end of this year or at the beginning of the next year. If it happens, this will be a record in the history of any vaccine development process, as the normal ‘mind to market’ period to deliver a scientifically proven, safe and effective vaccine is normally around 10 years. That said, there always exists a gap between the cup and the lip, as the saying goes.

No doubt, vaccines will be the best way to bring the new Coronavirus under a tight leash to help normalize life, restore livelihoods, and putting a nation’s economy back to the growth trajectory. The good news is, alongside this magic bullet, the power of technology is exploring other technological measures to keep the virus at bay, wherever possible. In this article, I shall focus on this interesting area.

Let me hasten to add, the value offerings of these devices can’t be compared with the long-term benefits that vaccines will offer in containing this global pandemic. Nevertheless, the questions still remain, when will a well-documented, safe, effective and affordable vaccine hit the market?

W.H.O expects to deliver 2 billion doses of vaccines by end 2021:

According to a News Release of July 15, 2020, by the World Trade Organization (W.H.O): Seventy-five countries have submitted expressions of interest to protect their populations and those of other nations through joining the COVAX Facility, which aims to:

  • Accelerate the development and manufacture of COVID-19 vaccines.
  • Guarantee fair and equitable access for every country in the world.

The goal of COVAX is to deliver two billion doses of safe, effective vaccines that have passed regulatory approval and/or WHO pre-qualification, by the end of 2021. Besides W.H.O, other experts are also cautiously optimistic about the availability of Coronavirus vaccines ‘soon’. Here also the question may crop up: how soon is ‘soon’?

How soon is ‘soon’ – for sooner availability of Covid-19 vaccines?

Experts have opined, a vaccine would normally take years, if not decades, to develop. However, in this unprecedented global health crisis, researchers hope to achieve the same amount of work in only a few months, following the ‘fast track’ regulatory pathway. Let me give a sense of the prevailing buzz around the availability of some of these vaccines.

Going by what the Chief Executive Officer (CEO) of Serum Institute of India said about Oxford-AstraZeneca developed vaccine, many expect their availability by the end of the current year in India. The Company CEO, reportedly, said on July 22, 2020: “By November, we hope to launch the vaccine if the trials are positive and if the Drug Controller of India blesses it and says it is safe and effective.”

Further, on July 28, 2020, Moderna Inc. and Pfizer Inc. also launched two 30,000-subject trials of Covid-19 vaccines that could clear the way for regulatory approval and widespread use by the end of this year, as the companies announced. Notably, both vaccine candidates rely on a new technology that allows for faster development and manufacturing than traditional vaccine production methods, but does not have an extensive track record.

According to another report of July 30, 2020, Russia said, the world’s first COVID19 vaccine to be ready by August 12, 2020. The vaccine is being developed by Moscow’s Gamaleya Research Institute of Epidemiology and Microbiology.

India’s indigenous experimental Coronavirus covid19 vaccine candidate, developed by Bharat Biotech, is also undergoing phase 1 and Phase 2 trials at 12 sites spanning across India. The initial results are positive. Earlier, ICMR had announced its launch on August 15, 2020. However, specialists in this area feel, ‘the August 15 timeline seems totally unrealistic, if not entirely impossible.’

Be that as it may, most experts still think a vaccine is likely to become widely available by mid-2021, about 12-18 months after the new virus, known officially as Sars-CoV-2, first emerged. Bringing to the market a Covid-19 vaccine, no doubt, will be considered as a ‘huge scientific feat,’ but ‘there are no guarantees it will work’ for all. It’s also a point to ponder that ‘Coronaviruses already circulate in human beings. They cause common cold symptoms and we don’t have vaccines for any of them’ just yet, as the report highlights.

It’s, therefore, a clear possibility that a well-documented, safe and effective Covid-19 vaccine may not be available, at least, in the next 6 months. Moreover, access to an affordable Coronavirus vaccine by the global population will also not happen in a jiffy. In that case, it is encouraging to note that other cutting-edge technological initiatives are also moving ahead with a great speed, to bring the rapid transmission of the new Coronavirus under a tight leash.

Novel, non-medical tech initiatives to contain the Covid-19 spread:

As potentially lethal Covid-19 is overwhelming the world, besides search for new drugs, faster diagnosis to fight the infection – and most effective preventive measure – vaccines, several non-medical tech initiatives are also underway. Many of these are quietly heading forward in search of user-friendly solutions, not just to ‘take the pressure off overworked health care workers’, but also ‘to stop the spread of the disease.’ These are all running parallel to offer technology driven disease treatment-options during this global health crisis.

An interesting paper from the European Parliamentary Research Sevice (EPRS), also vindicates some critical developments in this area. It focuses on technology-based solutions for various pressing pandemic-related problems. Let me illustrate this point with one example each, in the areas of ‘taking the pressure off overworked health care workers’, and in ‘stopping the spread of the disease.’

Technology to ‘take the pressure off overworked health care workers’:

Even in India, one hears quite a lot about the hardship of overworked health care workers. Various unconventional ways were also prescribed for the nation to encourage them. Some of these aren’t inexpensive, either. From this perspective, one such application is robotics technology. It can be effectively used as an intelligent solution to reduce the risk of person-to-person transmission − especially in pandemic hotspots. As the above EPRS article highlighted, many countries are now deploying robots in other areas also to ‘take the pressure off overworked health care workers,’ such as:

  • To disinfect whole hospitals,
  • Decontaminate public and private sites,
  • Handle biohazardous waste,
  • Deliver food and medication to infected patients,
  • Taking patients ‘ temperatures and act as medical assistants.

For example, an Israeli-made AI-powered robot assistant is, reportedly, being used in hundreds of hospitals, medical centers, nursing homes, and corporate buildings in Asia. This is to help minimize human-to-human contact as millions of people take precautions due to the novel Coronavirus outbreak worldwide. By the way, Israel is now a good friend of India, too.

Technology ‘to stop the spread of the disease’:

On June 01, 2020, Science Daily reported, the researchers at Penn State, the University of Minnesota and two Japanese universities, have found that a personal, handheld device emitting high-intensity ultraviolet light to disinfect areas by killing the novel Coronavirus, is now feasible.

Another report of July 10, 2020 also brought to the fore that the researchers from the University of Houston have created a new air filter that virus tests at the Galveston National Laboratory found can kill 99.8 percent of COVID-19 instantly. The filter could be useful for killing COVID-19 in public places, such as, in airports and airplanes, in office buildings, schools and cruise ships, besides other closed spaces such as schools, hospitals and health care facilities. Thus, the ability of this “catch and kill” air filter to control the spread of the virus could be very useful for society,” confirmed another report.

On July 29, 2020, an Indian business news daily wrote, ‘Bengaluru-based Organization De Scalene has received clearance from the US Food and Drug Administration (USFDA) and the European Union to license and manufacture Scalene Hypercharge Corona Canon (Shycocan).’ The device disables the virus’ capability to infect, by flooding electrons in closed areas. It is claimed that Shycocan ‘has the ability to neutralize 99.9% of the Coronavirus that might be floating in the air in closed spaces.’

Although, it is not an alternative to medicines that can cure infected people or preventive vaccines, the device can be used to keep Covid-19 at bay, at least, till vaccines arrive. Thus, going by these developments, one gets a sense of various non-medical technological activities post Covid-19 pandemic outbreak. Especially about, how today’s technological whiz kids are working alongside the medical scientists to take the sting out of Covid-19 onslaught.

Conclusion:

The Lancet article – ‘Applications of digital technology in COVID-19 pandemic planning and response,’ published on June 29, 2020, also made similar observations. It said: ‘With high transmissibility and no effective vaccine or therapy, COVID-19 is now a global pandemic.’ In this scenario, to contain the spread of a highly transmissible virus, countries that have quickly deployed digital technologies in various critical areas to contain the spread of the infection, may emerge as front-runners in managing disease burden, the paper concluded.

As of August 02, 2020 morning, the recorded Coronavirus cases in India reached a staggering 1,751,919 with 37,403 deaths. Recent Sero-surveys also show COVID-19 peaks in the country is still far away. It is very likely that a vast majority of the population will survive the Covid-19 catastrophe, even if only the existing systems are followed. But, just surviving is neither the reason nor the purpose of life. What most people want today is finding out a comprehensive way for – ‘jaan bhi and jahan bhi’ (life also, the world also).

Understandably, on July 31, 2020, W.H.O has also reiterated: “The pandemic is a once-in-a-century health crisis, the effects of which will be felt for decades to come.” Under this backdrop, unleashing the potential of new non-medical digital tools, as illustrated above, seem to be of immense benefit – not just to protect many more people from the infection, but also to neutralize Covid-19 effectively, especially in India.

By: Tapan J. Ray

Disclaimer: The views/opinions expressed in this article are entirely my own, written in my individual and personal capacity. I do not represent any other person or organization for this opinion.

Could Vaccine Prevent Heart Attacks?

Could Vaccine Prevent Even Heart Attacks? The question may sound weird to many, but it really appears so, possibly reducing further need of several expensive medications for lifelong use. A good number of academic institutions, besides some biotechnology companies, are taking rapid strides in the newer areas of vaccine development to protect people from various non-infectious serious ailments, including some fatal disorders, such as heart attacks.

In this article, I shall deliberate on this area.

Picking up the thread:

One of the critically important preventive therapy to save millions of precious lives is – vaccination.  Way back in 1796, Edward Anthony Jenner not only discovered the process of vaccination, but also developed the world’s first smallpox vaccine to save mankind from this highly infectious and life-threatening disease. As per published data, prior to this discovery, the mortality rate for smallpox was as high as up to 35 percent.

Very appropriately, Jenner is often referred to as the “Father of Immunology”, whose pioneering work has saved more lives than the work of any other person, in that era. Later, in 1901 Emil Von Behring received the first Nobel Prize (ever) for discovering Diphtheria serum therapy for yet another highly infectious disease, affecting mostly infants and children.

Nevertheless, the pioneering work of Edward Anthony Jenner laid the primary substructure of immunology, which continued to be developed as a robust prophylactic measure against various types of, initially infectious and communicable diseases.

Expanded scope for vaccines:

Gradually, the global focus of vaccine development started expanding from prophylactic vaccination for communicable disease such as smallpox, diphtheria, malaria and pneumonia; to non-infectious disorders, like cancer, diabetes and atherosclerosis that often leads to heart attacks and strokes; including several therapeutic vaccines, especially for cancer. The list continues.

In other words, from inducing long-life immunity against exogenous or foreign antigens in infectious diseases caused by microorganisms, to inducing similar immune reaction against the body’s own molecules, which are responsible for precipitating seriously debilitating or life-threatening pathological changes. These include conditions, such as cardiovascular or metabolic disorders and many other chronic ailments, including various types of the deadly disease – cancer.

Would vaccines prevent even heart attacks?

Let me now get back to where I started from: Would vaccines prevent even heart attacks?

Medical experts often say, until a sudden heart attack occurs, patients with atherosclerosis may show no symptoms for decades. This epitomizes the seriousness of this disorder in human population.

Since long, atherosclerosis used to be considered as ‘a lipid-driven disease caused by the continuous accumulation of cholesterol in the arterial intima.’ However, that concept is changing now based on enough scientific evidences. These clearly indicate that ‘atherosclerosis is predominately a chronic low-grade inflammatory disease of the vessel wall with an interplay of humoral, cellular, and locally produced pro-inflammatory factors.’

Atherosclerosis is a chronic low-grade inflammatory disease:

In the above context, a recent research study has arrested the attention of many medical scientists, including several top cardiologists, across the world. This article, published on June 19, 2017, in the peer-reviewed European Heart Journal reported the development of a vaccine that induces an effective immune response in mice to significantly reduce plasma lipids, systemic and vascular inflammation, and atherosclerosis lesions in the aorta.

Leverages the immune system of the body:

In simple words, this cholesterol-lowering vaccine demonstrates how the immune system of the body can be leveraged to lower blood lipids, signaling a strong potential to make drugs, such as statins, possibly irrelevant.

This is the first intervention study based on a well-established, translational mouse model for hyperlipidemia and atherosclerosis. The research found, as compared with the control group, the vaccine reduced total and LDL cholesterol levels in the mice, as well as reduced signs of fatty build-up in the arteries.

Potentially an effective and economical approach:

The authors believe, the vaccine may represent an effective and economical approach, with higher patient compliance, in the treatment and prevention of similar cardiovascular pathologies. Taking the study to its next stage, they have already enrolled human volunteers to conduct the phase one study, for a detailed scientific assessment on how this vaccine will work for the patients suffering from similar disorders.

Another interesting development:

To give just a flavor of the progress of vaccine development in several areas of serious and life-threatening non-communicable diseases, I am quoting below the following interesting study:

June 1, 2016 issue of ‘The Independent’ reported that scientists of Johannes Gutenberg University in Germany have taken a “very positive step” towards creating a universal vaccine against cancer that makes the body’s immune system attack tumors as if they were a virus. The researchers had taken pieces of cancer’s genetic RNA code, put them into tiny nanoparticles of fat and then injected the mixture into the bloodstreams of three patients in the advanced stages of the disease. The patients’ immune systems responded by producing “killer” T-cells designed to attack cancer.

This vaccine was found to be effective in fighting “aggressively growing” tumors in mice. At the same time, such vaccines are fast and inexpensive to produce, and virtually any tumor antigen (a protein attacked by the immune system) can be encoded by RNA, the report said.

How expensive are the R&D costs for vaccines?

In this context, an important related question may well be raised: How expensive are the R&D costs for vaccines? According to a paper published by the US National Library of Medicine and National Institute of Health (NIH):

“A vaccine candidate entering pre-clinical development in 2011 would be expected to achieve licensure in 2022; all costs are reported in 2022 Canadian dollars (CAD). After applying a 9 percent cost of capital, the capitalized total R&D expenditure amounts to $ 474.88 million CAD.” 

Some key issues and challenges:

Scientific breakthroughs in genetics and biotechnological research, supported by state of art tools related to information technology, a wide range of vaccine development initiatives, targeting both in infectious and non-infectious diseases, are making rapid progress. However, as I had said before, there are some key issues and challenges that need to be addressed, simultaneously. A few examples of which are as follows:

  • Actual cost of vaccines goes much beyond their R&D expenses. This is mainly because of dedicated and highly specialized manufacturing facilities required for their mass-scale production, and then for the distribution of the same, mostly using cold-chains.
  • Around 60 percent of the production costs of vaccines are fixed in nature (National Health Policy Forum. 25. January 2006:14). Thus, such products will need to have a decent market size to be profitable.
  • Unlike many other medications for chronic ailments, which need to be taken for a long duration, vaccines are administered for a limited number of times, restricting their business potential.

Full neutralization of this cost before keeping a modest margin, could make such high-end vaccines relatively expensive for patients, without adequate financial incentives from the Government.

In conclusion:

The discovery of the interesting vaccine to prevent both fatal and non-fatal heart attacks followed an interesting path, and took a long time of around one and a half decade to go for the phase I human trial. Putting together the facts from the available scientific literatures, the long and arduous path of this journey may be, I reckon, summed up, as follows:

An article published by the Harvard Stem Cell Institute (HSCI) on June 9, 2014 first reported that it’s plausible to prevent heart attacks with vaccination. Nonetheless, it all started even much before that, when in 2003, a group of researchers in France studying families with very high cholesterol levels and very early heart attacks, discovered a specific cholesterol regulator. Mutations in the related gene seemed to be responsible for very high cholesterol levels, and early heart attacks. Further research on the subject continued thereafter, based on this novel finding.

Thereafter, in 2014, HSCI scientists collaborating with researchers at the University of Pennsylvania developed a “genome editing” approach for permanently reducing cholesterol levels in mice with a single injection, potentially reducing heart attack risk by up to 90 percent, reported this Harvard article. ‘Circulation Research’ – a journal of the American Heart Association, published the study online on June 10, 2014.

Currently, in mid 2017, from the article published in the peer-reviewed ‘European Heart Journal’ we get to know that development of a vaccine that can prevent heart attacks is going for phase I clinical trial, following several well-tested and scientific evidence based promises.

The outcome of the final phases of this study will now be keenly followed by the experts. Others will optimistically wait for the D-day – virtually the dawn of a new paradigm of preventing heart attacks through vaccination, well before it can result into any fatal or crippling consequences.

By: Tapan J. Ray 

Disclaimer: The views/opinions expressed in this article are entirely my own, written in my individual and personal capacity. I do not represent any other person or organization for this opinion.

To prevent ‘counterfeit medicines’ from reaching the patients is the nation’s public health responsibility: Are we still in a denial mode to even accept the existence of this public health menace?

In November 7, 2009, Financial Express reported with a headline,”Generic drug companies see a bitter pill in counterfeit, because some believe that it has an in-built intellectual property right connotation.
The dictionary definition:

The word ‘counterfeit’ may be defined as follows:

1. To make a copy of, usually with the intent to defraud

2. To carry on a deception; dissemble

4. To make fraudulent copies of something valuable

5. A fraudulent imitation.

What does Indian Drugs and Cosmetics Act say?

May be for this reason the Drugs and cosmetics Act of India has specified that manufacturing or selling of the following types of drugs are punishable offence:

Section 17: Misbranded drugs

Section 17-A: Adulterated drugs

Section 17-B: Spurious drugs

No one has asked, so far, that as misbranding could involve trademark and design, why should it fall under Drugs and Cosmetics Act?

This was done in the past by the law makers because they believed that any attempt to deliberately and fraudulently pass off any drug as something, which it really is not, could create a serious public health issue, leading to even death.

Be that as it may, the pharmaceutical industry all over the world sincerely believes that counterfeit drugs involve heinous crime against humanity.

Definition of counterfeit drugs should cover the all types of medicines, which are not genuine:

Definition of counterfeit drugs should, therefore, cover the entire gamut of medicines, which are not genuine. Such medicines could be a fraudulent version of patented, generic or even traditional medicines and have nothing to do with patents or patent infringements.

At the same time it sounds very reasonable that a medicine that is authorized for marketing by the regulatory authority of one country but not by another country, should not be regarded as counterfeit on this particular ground in the other country, if it is not made available fraudulently.

The recent survey on ‘spurious’ and ‘sub-standard’ drugs by the Government of India:

To assess the magnitude of the menace of counterfeit drugs, Financial Express dated November 12, 2009 reported that much hyped “world’s largest study on counterfeit drugs” conducted by the Ministry of Health of the Government of India with the help of the Drug Controller General of India’s office, has come to the following two key conclusions:

1. Only 0.0046% of the drugs in the market were spurious

2. Quantum of sub-standard drugs in India is just 0.001%

From this report, it appears that India, at this stage, has nothing to worry about this public health hazard!!!
It is indeed quite baffling to understand, why did the government keep ‘misbranded drugs’, as specified in the Drugs and Cosmetics Act of India, outside the purview of this study.

Be that as it may, it appears that this survey has raised more questions than what it had attempted to answer. Such questions are expected to be raised not only by the pharmaceutical industry of India, its stakeholders and the civil society at large, but by the global experts, as well.

The problem of counterfeit is more prevalent in countries where regulatory enforcement is weak:

The menace of counterfeit medicines is not restricted to the developing countries like, India. It is seen in the developed countries, as well, but at a much smaller scale. Thus it is generally believed that the issue of counterfeit drugs is more common in those countries, where the regulatory enforcement mechanism is weak.

A study done by IMPACT in 2006 indicates that in countries like, the USA, EU, Japan, Australia, Canada and New Zealand, the problem is less than 1%. On the other hand, in the developing nations like parts of Asia, Latin America and Africa more than 30% of the medicines are counterfeits.

The role of ‘The World health Organization (WHO):

To effectively root out this global menace, the leadership role of the WHO is extremely important. Across the world, patients’ need protection from the growing menace of counterfeit medicines. As a premier organization to address the needs of the global public health issues and especially for the developing world, the WHO needs to play a key and much more proactive role in this matter.

Conclusion:

All stakeholders of the pharmaceutical industry must be made aware more effectively, without further delay, of the health threats posed by counterfeit medicines. Authorities and organizations like the Drug Controller General of India (DCGI) and its regulatory and enforcement agencies, healthcare professionals, patients, all pharmaceutical manufacturers, drug distributors, wholesalers and retailers should collaborate to play a very active and meaningful role in curbing the counterfeit drugs from reaching the innocent patients.

By Tapan Ray

Disclaimer: The views/opinions expressed in this article are entirely my own, written in my individual and personal capacity. I do not represent any other person or organization for this opinion

Fixed Dose Combination’ drugs market in India is growing faster – are there enough regulatory checks and balances to prevent market entry of ‘irrational combinations’ to ensure patients’ safety?

The WHO Model of FDCs:The 2005 ʹProcedure to update and disseminate the WHO Model List of Essential Medicines, Criteria for Selection‘ includes the following statement regarding fixed dose combination products (FDCs):ʺMost essential medicines should be formulated as single compounds. Fixed‐dose combination products are selected only when the combination has a proven advantage over single compounds administered separately in therapeutic effect, safety, and adherence or in delaying the development of drug resistance in malaria, tuberculosis and HIV/ AIDS.ʺ

FDCs need to demonstrate clinical efficacy and safety beyond that for the individual drugs given alone. They would also need to ‘demonstrate bioequivalence of the single combined dose unit with the components administered in the same doses separately but concomitantly’.

‘Adherence’ aspect of WHO Model for FDCs is also important. Problems with ‘adherence’ could lead to inadequate and inconsistent dosing, which in turn could lead to development of drug resistance. FDCs, therefore, are expected to improve compliance reducing the risk of development of drug resistance.

However, one of the major disadvantages with the FDCs is lack of flexibility in adjusting dose of individual ingredients, even if it is required for some patients. Internationally, most popular example is the FDCs of antiretroviral drugs for HIV infected patients like, Combivir, Trzivir, Kaletra etc. Besides, there are FDCs for various other disease areas, like, infections, respiratory and cardiovascular disorders etc.

New FDCs are patent protected in the USA:

In the western world, like the USA, new FDCs may also get patent protection. A company may obtain marketing exclusivity for a new FDC even when individual active ingredients go off patent. However, in India FDCs cannot be patented as per Patent Acts of India 2005.

Market attractiveness for FDCs in India:

In India the market for FDCs is very large and growing much faster, in sharp contrast to the western world. Because of growing market demand, pharmaceutical companies in India tend to market FDCs of all different permutations and combination, at times even crossing the line of a ‘sound medical rationale’. For this reason, we find in the website of ‘Central Drugs Standard Control Organization’ (CDSCO), the banned list of so many FDCs.

Lack of regulatory compliance has created a messy situation with FDCs in India:

Introduction of new FDCs does not only warrant a ‘sound medical rationale’ but also ‘strict conformance to all prescribed regulatory requirements’ for the sake of patents’ safety.

To check unfettered market introduction of potentially harmful FDCs, the Ministry of Health issued a Notification in September 1988, including FDCs in Rule 122 E of the Drugs & Cosmetics Rules (D&CR) 1945. In effect, it removed the powers of the State FDAs to give manufacturing or marketing approval of FDCs. After the notification was issued, all manufacturers/marketers of all FDCs are required to apply only to the Drug Controller General of India (DCGI) under Rule 122E of the D&CR 1945 as a new drug, along with the stipulated fees by way of a Treasury Challan.

Since this entire process entails relatively more regulatory data generation, besides the time and expenses involved, the above Rule was continuously and deliberately broken and manufacturing and marketing approvals were routinely sought and obtained from the State FDAs. Many believe that the State FDAs were equally responsible for knowingly flaunting the Law, as were the pharmaceutical companies.

Patients’ safety – the key concern:

This complicity resulted in the market being flooded with ‘irrational combinations’ which posed a real threat to patients’ safety. The state FDAs were reminded of the Notification by the earlier DCGI. 294 FDCs got caught in this dispute. The important issue of patients’ safety in that process got converted into a legal issue, as many FDC manufacturers chose to go to the court of law to redress their grievances in this matter.

Untangling the messy knot:

As the issue got trapped into various prolonged litigations, the current DCGI took initiative of resolving this contentious issue with the help of an expert committee, involving the manufacturers.

This subcommittee cleared 48 FDCs under ‘similar FDCs already approved’, after discussing the merits and demerits, including pharmacodynamics, pharmacokinetics, side effects, dosage, medical rationale etc. of each ingredient and the combinations. The decision of the Sub Committee was then submitted to the Drug Technical Advisory Board (DTAB).

After formal approval of DTAB, a notification is expected to be issued subsequent to which each of these combinations will be construed to be a new drug and any company wishing to market/manufacture the formulation will require submitting its Application in Form 44 to the DCGI to get approval in Form 45. The process will be completed after the balance 142 FDCs, which need further examination, are individually approved.

This issue sends a clear signal to all concerned that resorting to any form of shortcuts to bypass strict adherence to prescribed regulatory requirements, could seriously jeopardise the patients’ safety. The number of FDCs banned by CDSCO and also ban of those FDCs agreed and accepted by the industry without any challenge during the above process, will vindicate this point.

Solving the current logjam is not enough:

Solving the current logjam on FDCs by the DCGI is a onetime exercise and will perhaps clear a serious mess-up created over a long period of time. It can definitely not be an ongoing process. Neither will it be desirable. There is an absolute and urgent need to follow the WHO Model for FDCs, in India, as indicated above, through appropriate regulatory processes. At the same time, the DCGI should ensure strict compliance of the Notification issued by Ministry of Health on FDCs, in September 1988. Otherwise, unchecked entry of FDCs of all possible permutations and combinations could pose a serious threat to patients’ interest and safety.

Meeting unmet needs of the patients with high quality drugs of scientifically proven high efficacy and safety profile should always define the purpose of existence of the pharmaceutical industry. Any patients’ safety related issue deserves no scope for any compromise.

By Tapan Ray

Disclaimer: The views/opinions expressed in this article are entirely my own, written in my individual and personal capacity. I do not represent any other person or organization for this opinion.