Dawns A New Era: Regenerative Medicine For Degenerative Disease

Could breakthrough innovation in ‘Regenerative Medicine’ significantly reduce the need of expensive lifelong medications, or even make the use of some important medical devices less relevant, or even help avoiding expensive and risky surgical interventions? The common answer to these critical questions is now getting clearer, in tandem with the rapid progress of the science of ‘Regenerative Medicine.’

On June 13, 2017, Nature Biomedical Engineering published an interesting an article titled, “3D-printed vascular networks direct therapeutic angiogenesis in ischemia.” In simple words, these 3D-Printed patches are going to usher in a highly innovative way to treat ischemic diseases, in the future. As the researchers highlighted, arterial bypass grafts are currently considered as the gold standard for the treatment of end-stage ischemic disease, though many patients are unable to tolerate the cardiovascular stress of arterial surgery. The researchers found that implantation of 3D-printed grafts containing endothelial-cell-lined lumens, induces spontaneous and geometrically guided generation of collateral circulation in ischemic settings.

In rodent models of hind limb ischemia and myocardial infarction, these scientists successfully demonstrated that the vascular patches rescue perfusion of distal tissues, preventing capillary loss, muscle atrophy and loss of function.

In this article, I shall deliberate on the importance of this discovery, and its overall future implications on a broader perspective.

Regenerative medicine:

Here comes the basic question – What is ‘Regenerative Medicine’?

It is defined as a highly innovative branch of medicine that develops implementable methods to regrow, repair or replace damaged or diseased cells, organs or tissues. According to RegerativeMedicine.net following are illustrations of some conditions or diseases that regenerative medicine has the potential to cure, and what their current state of treatment looks like in in the American perspective:

  • Heart valves- 250,000 patients receive heart valves, at a cost of US$27 billion annually
  • Heart disease and Stroke- 950,00 people die of heart disease or stroke, at a cost of US$ 351 billion annually
  • Diabetes- 17 million patients have diabetes, at a cost of US$ 132 billion annually

I discussed in this blog, the subject of ‘3D Printing in health care’ on January 11, 2016. Hence, won’t dwell on that subject here

Ischemia, and the relevance of the above discovery:

Ischemia, as many would know, is a condition that restricts adequate flow of blood in some parts of our body, which over a period, may narrow, harden or even block the important blood vessels, much often resulting in stroke, heart attack or other related life-threatening vascular disorders.

Currently, ischemic heart conditions are usually treated either with blood thinning drugs, or blood vessel relaxants. In more serious stages of this condition, doctors prefer angioplasty or other surgical interventions, such as coronary artery bypass.

In this broad perspective, the relevance of the above discovery in addressing various debilitating or life- threatening ischemic conditions, is profound. Its novelty lies in the ability of the scientists making a 3D-printed patch that can be infused with cells to help grow healthy new blood vessels.

An emerging medical space:

The science of ‘Regenerative Medicine’ is increasingly being considered as an emerging medical space aimed at the treatment of those diseases that are usually classified as degenerative, incurable and irreversible. As it appears today, this science has the potential to unfold a new paradigm in this space, where patients can expect cure for many serious ailments, such as, spinal injuries, heart disease, Parkinson’s, Alzheimer’s disease and even diabetes, besides many others.

One more recent pursuit in this much uncharted frontier was reported in the British news daily – ‘The Telegraph’ on February 21, 2017, revealing the outcome of a path-breaking medical study for freezing the progression of a crippling ailment called Multiple Sclerosis (MS). This research followed a unique Stem Cell (SC) transplantation process, and is regarded as the largest long-term follow-up of SC transplantation treatment study of MS in regenerative medicine.

This study, spearheaded by Imperial College London, established that 46 per cent of patients who underwent the treatment did not suffer a worsening of their condition for five years. The process works by destroying the immune cells responsible for attacking the nervous system. This is indeed a very significant development in the space of medical research.

The treatment, called autologous hematopoietic stem cell transplantation (AHSCT), was given to patients with advanced forms of MS who had failed to respond to other medications. However, the researchers noted that the nature of the treatment, which involves aggressive chemotherapy, carried “significant risks”.

As many would know, MS is caused by the immune system malfunctioning and mistakenly attacking nerve cells in the brain and spinal cord, leading to problems with movement, vision, balance and speech. It’s a lifelong condition and often causes serious disability, with no cure still in sight. The disease is most commonly diagnosed in people in their 20s and 30s, although it can develop at any age.

A potential game changer:

According to California Institute for Regenerative Medicine (CIRM), this procedure has a game changing potential for successful use:

  • To replace neurons damaged by spinal cord injury, stroke, Alzheimer’s disease, Parkinson’s disease or other neurological problems
  • To produce insulin that could treat people with diabetes, and heart muscle cells that could repair damage after a heart attack, or
  • To replace virtually any tissue or organ that is injured or diseased

Research on “Regenerative Medicine’ signals a new hope:

Following are examples of just a few more promising developments, indicating that research in ‘Regenerative Medicine’ is taking rapid strides, signaling a new hope:

A cure for Type 1 diabetes:

According to an international report on October 9, 2014, for the first time after 23 years of research, Harvard University has been able to manufacture millions of beta cells required for transplantation. It could mean a cure for diabetes, and the end of daily insulin injections for patients living with Type 1 diabetes. Although, just around 10 per cent of all diabetes is Type 1, it is the most common type of childhood diabetes.

The report indicated, the stem cell-derived beta cells are presently undergoing trials in animal models, including non-human primates, where they are still producing insulin after several months.

Another report of April 2014 indicates that for the first time, scientists have successfully replaced the damaged DNA of a type 1 diabetes sufferer with the healthy genetic material of an infant donor. When these cells are injected back into the diabetic patient, it is expected that they will begin to produce insulin on their own.

Restoring vision in macular degeneration:

Yet another study published in ‘The Lancet’ in October 2014 stated that scientists in the United States have announced that single transplant of stem cells has helped restore the sight of patients suffering from incurable forms of blindness due to Age-related Macular Degeneration (AMD). Currently no effective treatments exist for this eye disorder, which can cause complete blindness due to the loss of light-receiving photoreceptor cells in the retina.

To recreate a type of cell in the retina that supports those photoreceptors, the new treatment uses stem cells derived from embryos that are only a few days old and have the ability to develop into any kind of tissue in the body. However, the transplants have proved controversial because they use stem cells derived from spare human embryos left over from IVF treatment.

A cure for heart failure:

One more international report of May 01, 2014 states, by injecting human stem cells into the organs of macaque monkeys, scientists have been able to regenerate their damaged hearts by up to 40 per cent in just a few weeks. Thus, it appears now that a cure for heart failure could be just a few years away and would mean that even people who are “bed-bound” with heart failure could be “up and about” again within a few weeks.

As on date, the heart muscle cannot be repaired, making people with severe heart failure necessarily wait for a heart transplant, provided the patients are willing, and can afford so.

Conclusion:

There is a host of diseases, including several chronic ailments, such as diabetes, heart conditions, rheumatoid arthritis, or some types of cancer, which can’t be reversed, however, could be managed with a lifelong treatment. For most of these diseases, ‘Regenerative Medicine’ has the potential to be a game changer by transforming many lives.

Moreover, ‘Regenerative Medicine’ is expected not just to bring down the cost of health care and the disease burden significantly, but would also help increasing the economic productivity of a nation considerably.

Currently, medical research of the highest order in this area, has mostly been conducted by various academia of global repute, along with a few in the industry. It should soon involve, besides patients, several industries, including pharmaceuticals and biotech sectors, in a big way.

Nevertheless, this emerging trend sends a clear signal that to treat various chronic, incurable, irreversible and seriously debilitating degenerative diseases ‘Regenerative Medicine’ is now poised to take a giant leap in the health care space.  In that process, it would possibly help healing various ailments in a more meaningful, providing a cure for many chronic diseases that was a badly missing piece in the medical science, so far.

Thus, ‘Regenerative Medicines’ to treat many ‘Degenerative Diseases’ signal a great potential to give an altogether new shape and dimension to the future of global health care. It is also expected to ensure lesser lifelong usage of expensive drugs, setting a new normal to bring back the patients’ lives back to the pre-disease state.

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.

In VUCA World: Changing Dynamics of Prescription Generation Process

The acronym VUCA is often being used to emphasize upon the Volatility, Uncertainty, Complexity and Ambiguity in various situations. The term has been derived from military vocabulary and is being used since 1990s in the business management parlance. VUCA is also considered as a practical code for awareness and readiness.

I find all the elements of VUCA playing an active role in the prescription demand generation space too, as it is based on various assumptions of what will work and what won’t in a fast changing pharmaceuticals business environment. 

The interplay:

Primary interplay in the sustainable prescription demand generation process of today’s digitally empowered VUCA environment, I reckon, could be as follows:

  • Volatility: Fast changing dynamics of medical communication with interfaces made of emerging modern technological tools carrying high risks of rapid obsolescence.
  • Uncertainty: Lack of predictability in assessing outcomes of increasingly expensive product detailing inputs, coupled with too many surprise elements popping-up in the environment almost from nowhere and more frequently.
  • Complexity: Multi-factorial Doctor-Medical Representative (MR) interactions, which get even more complicated with increasing time constraints for effective product detailing to take place.
  • Ambiguity: Difficult to fathom changing needs of the doctors/payors, leading to increasing cause-and-effect confusion by the pharma marketing strategy planners.

Keeping these in view, today I shall deliberate on the ‘Criticality of Optimal Mix of Human and State of Art Digital Interfaces’ for sustainable prescription demand generation in a VUCA environment.

The key influencer – a new study:

A research study published in June 2013, in the ‘American Heart Journal (AHJ)’ establishes that the interaction between physicians and MRs, though essential for  improvement of medical care, is indeed complex. This is mainly because of the apprehension that conflict of interests may affect the doctors’ prescription decision-making process. 

However, the fact comes out, the doctors tend to prescribe more of expensive medical products after interacting with MRs from the concerned manufacturing companies, which, in turn, raises the treatment costs for patients.

Study established MRs influence prescription decision:

This particular AHJ study compared the use of Bare-Metal Stents, Drug-Eluting Stents (DES), and Balloon Catheters according to company presence in the hospital. It concluded that MR presence was associated with increased use of the concerned company’s stents during percutaneous coronary interventions. The effect was more pronounced on the use of DES, and resulted in higher procedural cost of US$ 250 per patient.

In this particular study, it was found that DESs were used in about 56 percent of the cases, when the MRs concerned were at the hospital, against 51 percent when they weren’t there.

Interestingly on such interactions between the MRs and the drug/devices industry two opposite viewpoints emerge.

MR-Doctor interaction important‘ – Industry:

Quoting the Associate General Counsel and Director of Legal and Medical Affairs at the Advanced Medical Technology Association, a medical technology trade association, Reuters reported, “interactions between sales representatives and doctors benefit patients and are supported by professional medical organizations.”

MR interaction should not influence prescription decision’ – Doctors:

In the same report, the study’s lead author was quoted saying, “We need to evaluate carefully any interactions with medical industry to ensure that we minimize an effect on our decision making process.”

The bottom-line, though the debate continues:

This debate will keep continuing even in the years ahead. Be that as it may, the key fact that emerges out of the above study is, MRs do play a critical role in the prescription decision-making process of the doctors, especially for expensive medical products . Consequently, the pharmaceutical companies will prefer maintaining such ‘influencing’ roles of MRs to boost revenues of their respective brands.

This process assumes even greater importance in a VUCA world, as situation specific more frequent human interventions, strongly backed by state of art technological supports, would need to be effectively deployed for generation of sustainable prescription demand to excel in business.

The X-Factor:

However, one of the most challenging issues even in a VUCA situation is that pharma players continue and will continue to target the same sets of prolific prescribers for any given class of products in pursuit of success. As a result, time being so limited, very often even after waiting for hours MRs may not be able to meet the key prescribers.

Moreover, as and when the meeting takes place, it may well get restricted to just a very brief discussion due to the X Factor – paucity of the doctors’ time. Thus, delivering an effective product message in such a short time becomes increasingly challenging. Further, the difficulty in arresting un-interrupted attention of the busy practitioners due to X-Factor when they are with patients, compounds the problem.

Pivotal role of state of art technological tools:

The effectiveness of connection between respective brands of different drug makers and the doctors can be greatly facilitated with the application of state of art technology and modern internet based tools in varying proportions, as the sales and marketing communication strategy would dictate.

This area is emerging as a crafty game, which calls for wide-scale application of analytics.

Traditional strategies not enough:

In a VUCA world, while traditional face-to-face product detailing to doctors may continue to be the primary means for prescription demand generation, experimentation with a good number of new Internet based initiatives has already been started, as I discussed in my earlier article.

Hence, the concepts of digital marketing and e-detailing are gaining ground fast. Such initiatives of augmented digital communication of key marketing messages to doctors, would also help driving the key customers’ traffic to respective product Websites of the concerned companies for more detailed and convincing medical treatment solutions, as and when required by the busy doctors.

Types of digital interventions:

These digital interventions may include:

  • Highly targeted brand specific e-mailing responding to pre-identified needs of individual doctors
  • Sample ordering as per requirements of doctors
  • Live online product presentations at a time convenient to individual doctors
  • Quick and need-based problem solution centric online chats 24×7
  • Strategic usage of social media, backed by a robust pre-decided key output measuring matrix

However, the mix of each of these digital applications will need to be carefully worked out as robust supporting measures to key prescription demand generation activities, spearheaded by the MRs. 

MRs to remain as ‘Spearheads’:

In my view, MRs would still remain the frontline force in the emerging world (dis)order, may be lesser in number, for sustainable prescription demand generation process. Therefore, there is an urgent need to take them on board upfront and train suitably to make the modern digital interfaces successful as powerful differentiating support tools.

Technology based training on digital marketing and e-detailing as empowering initiatives, demonstrating tangible benefits that such high tech-interventions can offer in the overall sales performance of MRs, would play a critical role. Such efforts would, in turn, immensely help making digital augmentation strategies for pharma detailing successful, in the long run.

MR involvement is critical:

In my view, to be successful in a VUCA environment with all these endeavors, however tech-intensives those may be, there will be a critical need to make the MRs understand and learn the process. In tandem, it is equally important to actively engage them in the execution of the integrated medical communication strategy of the concerned companies.

Keeping this perspective in mind, I guess, it will be quite apt to quote Ben Franklyn, one of the Founding Fathers of the United States and a leading author, printer, political theorist, politician, scientist, musician, inventor and economist, all in one, who once wrote:

“Tell me and I forget, 

 Teach me and I remember,

 Involve me and I learn”

Thus, MRs would continue to have a critical role to play in the demand generation process for prescription medicines. However, they must be properly trained to be able to provide the types of knowledge and information that the doctors may not have ready access from elsewhere.

The entire process would, at the same time, require massive technological interventions, not incremental in nature but radical in scope and dimensions, and at a much wider scale than what we have been attempting today.

Challenges in India:

The very concept of VUCA in the changing dynamics of sustainable prescription demand generation, brings to the fore the issue of quality of MRs in India.

Currently there is a wide, both inter and intra company, variation in the educational qualifications, relevant product and disease area knowledge, professional conduct and ethical standards between MRs in our country.

Employability of MR in a VUCA world:

Just when we talk about augmented digital interfaces in medical communications, there exists a huge challenge in the country to strike a right balance between the level/quality of sales pitch generated by the MRs for a brand.

At times, many of them may not be properly armed with requisite scientific knowledge, and the basic norms of professional conduct/ ethical standards, while rendering their services.

They may not also be able to handle the sophisticated technological tools with quick application of minds. Hence, the subject of employability of MR in a VUCA world needs to be addressed afresh in India.

‘One size fits all’ strategies:

To make it happen, the pharmaceutical players would require to jettison, ‘one size fits all’ types of strategies in a VUCA world.

In tandem, pharma marketing strategists will need to be intimately conversant with a relatively difficult process of cerebral gymnastics to help formulating individual key prescriber-centric communication strategies, where MRs can play a key role with optimal digital interventions.

This is possible, if supported by the respective employers creating an environment of empowerment, backed by requisite product training, technological tools, modern behavioral inputs and above all by making investments to create of a large sustainable emotional capital for longer term  business excellence.

Conclusion:

All the elements of VUCA would keep playing very critical roles in sustainable prescription demand generation process in the years to come, more than ever before.

There is a critical need to understand the interplay between each of these dynamics on an ongoing basis to make strategic modifications quickly, whenever required. This is important, as the prowess to introduce right changes at right times will differentiate men from the boys in this ultimate ball game of the pharma industry. 

To succeed in a VUCA environment, pharmaceutical companies may choose to predominantly focus on harnessing their technological expertise. 

However, to face the waves of virtually unpredictable continuous change, only technology based efforts, I reckon, are less likely to fructify. Unless, these high- tech interventions are spearheaded by time-specific fast enough and intelligent skilled human responses in form of MRs. 

Having said that, it would be foolhardy to even think of completely taming VUCA with whatever human and technological wherewithal that any pharma player may be able to garner to achieve its goals. It is, in fact, a matter of relativity in managing VUCA in a given situation at a given time. 

Thus I believe, there is, on the contrary, a need to leverage a VUCA environment, for creation of an ‘Optimal Mix of Human and State of Art Digital Interfaces’ in the product detailing process with a high sense of urgency. This would be critical to gain cutting edge advantages for generation of increased prescription demand in a sustainable way.

For the pharmaceutical marketing strategists, this new ball game would obviously not be a piece of cake either, as the key success factors would involve the right mindset of first unlearning and then relearning the process on an ongoing basis, virtually in all time to come

With this perspective, I conclude by quoting the famous American writer and futurist Alvin Toffler, who once said,

“The illiterate of the 21st century will not be those who cannot read and write, but those who cannot learn, unlearn, and relearn.”

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.