India’s 2020 Vision

20-20.jpg

If India’s biopharmaceutical players are to compete effectively on the global scale and capture 10% of the global biosimilars market by 2020, India’s private sector will have to invest a considerable amount of capital in building the necessary manufacturing capacity and skills base. At the same time, the Government of India (GOI) will also need to provide the necessary enabling environment. India’s biopharma sector consists primarily of vaccines, monoclonal antibodies, recombinant proteins and diagnostics, and the guidelines for biosimilars are already in place. All India needs to take market share is entrepreneurship.

The GOI’s Department of Pharmaceuticals, in partnership with the biotechnology industry body ABLE and PricewaterhouseCoopers have taken up the task of addressing this opportunity and provided recommendations into the following six sections: R&D; manufacturing and commercialization; human capital; the regulatory framework; innovation; and intellectual property.

1 Research and Development

• Build protein characterization laboratories and GLP-certified animal study facilities

• Create a national animal breeding facility

• Expand viral testing facilities

• Provide financial assistance for ensuring compliance with global standards

• Promote the development of pre-clinical service providers

• Provide practical support for clinical trials

• Simplify the procedures for importing and exporting biologics

2 Manufacturing and Commercialization

• Create a single-window system for approvals and clearances

• Introduce flexible pollution controls

• Invest in better transport links and cold-chain facilities

• Provide fiscal incentives

3 Human Capital

• Expand India’s capability in toxicity studies

• Foster a trilateral relationship between industry, academia and government

• Improve and expand the workforce development pipeline

• Establish exchange programmes, “finishing schools” and scholarships

• Increase public awareness about career opportunities in the industry

• Provide more training for existing employees

4 The Regulatory Framework

• Simplify the procedure for approving biologics

• Create an independent inspection facility

• Modify the regulations on process validation

5 Innovation

• Provide seed funding for innovation

• Construct biotechnology clusters

• Promote translational research

6 Intellectual Property

• Protect innovation

• Approve the bill liberalizing the commercialization of intellectual property generated in state-funded institutions

In the next few blog posts, I will be discussing these six sections of India’s Vision 2020: BioPharma Strategy.

Viren Konde

Bioentrepreneur article online

We’ve posted a new article on the Bioentrepreneur website, Headwinds into Opportunity, by Prabhavathi Fernandes. The author is CEO, president and founder of Cempra Pharmaceuticals, and she previously helmed DarPharma, Ricerca Biosciences and Small Molecule Therapeutics. She’s also worked at BMS and Abbott. For more on her background, go here.

Her article details the obstacles in Cempra’s path at founding and as it attempted to derisk itself for investors by taking on an additional compound. These hurdles included an uncertain environment at the FDA, as Cempra’s main program was related to telithromycin, which had shown serious side effects on the market.

You can read the piece here online, or you can view the PDF. There is also a featured article pulled from our archives dealing with valuation for investors – read that here.

Brady Huggett

Can a Hollywood horror movie influence drug development?

movie-poster.jpg

Warner Brothers has begun a publicity campaign for a new calamity film, called Contagion, scheduled to be released in the U.S. on Sept. 9. Directed by Steven Soderbergh, and made with cooperation from the Center for Disease Control and Prevention, the film is about a deadly flu pandemic in which millions die.

With an all-star cast that includes Matt Damon, Kate Winslet, Gwyneth Paltrow and Elliot Gould, movie industry analysts are expecting Contagion to draw big crowds and earn Warner Bothers a profit on the $60 million it invested in the film.

But is it possible that this scary movie could also have a financial impact on the dozen or so biotech companies that are currently scrambling to develop a universal flu vaccine? Could the increased public awareness actually help cash-strapped researchers raise the funds they need to accelerate R&D programs?

The answer could be yes, if the stock-market experience of BiondVax Pharmaceuticals is an indication of investor interest.

BiondVax is one of the leading contenders in the race to find a universal flu vaccine, with its platform technology recently completing a successful Phase II trial. The company’s stock price has fluctuated dramatically over the years, often in an apparent response to the perceived public threat of a catastrophic global flu outbreak.

The company’s share price on the Tel Aviv Stock Exchange spiked most sharply in 2009 at the time of the swine flu outbreak, going overnight from about 2 shekels a share to 7.

BiondVax’s universal flu vaccine candidate attempts to overcome the limitation of current flu vaccines, which are strain specific and target proteins (hemagglutinin) on the surface of the influenza virus. As the hemagglutinin protein changes when the virus mutates, flu vaccines have to be constantly reformulated.

BiondVax’s platform technology breaks new ground because it targets conserved areas of the influenza virus, which are common to all strains. The technology has been shown in laboratory tests to provide protection against all known strains of flu, including swine flu and avian flu.

The company is planning another Phase II trial for its vaccine enhancer product to begin by the end of this year with results expected in early 2012. Following that, a third Phase II trial is planned for late 2012, with the Phase III trial expected in 2013. Launch of the flu vaccine enhancer product could potentially be as early as 2014.

The company had expected to wait for the completion of its vaccine enhancer product, which is based on the same technology as its universal flu vaccine product, before attempting to raise the funds needed for the more extensive trials required for the universal product.

But that was before Contagion was produced.

Bernard Dichek

Non-dilutive financing to power your leverage startup – part 1

power3.jpg

In this post, we will discuss the use of non-dilutive financing to incubate early-stage technologies with commercial potential prior to company formation. This strategy is designed to advance technologies originating from, or based in, an academic environment. In a later post, we will explain how the non-dilutive financing strategy can evolve when the startup company is founded.

Non-dilutive finance and the Leverage Startup

Non-dilutive financing is a central tenet of the Leverage Startup Model. This model is a capital-efficient vehicle to advance research-intensive technology, through its earliest and riskiest stage, toward commercialization. The Leverage Startup is designed to leverage established resources available to the biotech community: non-dilutive financing, R&D facilities, technical expertise and commercialization resources, and could be used to advance technology in several distinct environments, from an idea incubating in an academic laboratory to an emerging technology in an established company.

Non-dilutive financing can create value prior to company incorporation

The savvy entrepreneur will consider a non-dilutive financing strategy as a vehicle to develop the technology prior to licensing intellectual property (IP) and creating a company. Innovation emerging from an academic institution can be significantly de-risked and/or expanded in scope using pre-company non-dilutive funding. Used strategically, these funds can positively impact the short- and long-term success of a future company, and are frequently necessary to advance a technology sufficiently to attract future investment. This category of non-dilutive financing can be sourced from research grants, translational grants and translational centres, which are discussed below. Before embarking on this strategy, the entrepreneur should ensure that the academic institution’s technology transfer office agrees in principal to license the technology to the proposed start-up company; otherwise, a third party may benefit from these pre-company dollars.

Non-dilutive financing is not necessarily “free”

Prior to engaging a non-dilutive financing strategy, it is essential to recognize that this money is not necessarily “free” and potential company founders should carefully assess the costs, and other pros and cons of each potential funding source. We will highlight the potential “cost” of research dollars using examples from North America, which reflect our experience as founders of a biotech start-up based in Vancouver, Canada. Please add any additional sources and insights from North America and other regions to the comments below.

Research grants

Basic research grants provide the greatest diversity of opportunities, and cumulatively the largest source of funds to support research in an academic laboratory. These grants range from small-scale seed grants for risky research (no preliminary data) to large-scale, multi-year grants to support multi-faceted programs (preliminary data required). These grants offer not only much needed dollars, but also an opportunity for the entrepreneur to build, and test drive the start-up team, prior to incorporation (we will discuss this further in a later post). The “cost” associated with academic grants is generally minimal. For example, the Canadian Institute for Health Research (CIHR) the primary government funder for the life sciences in Canada claims no rights to any IP generated, or to future revenues enabled, by the funded research. The National Institutes of Health (NIH) has a more stringent IP policy, which includes a formal grant of a limited use license to the subject invention to the United States government. There are additional stipulations for foreign grantees.

Translational grants

Translational grants are designed to accelerate academic research with commercial potential. Generally, the technology focus of the grant is the subject of a patent application (US Provisional, or PCT), or has significant basis for an application in the future. These grants are usually short-term (1 year duration) and are often submitted in conjunction with the academic institution’s technology transfer office. Applications are evaluated on the basis of both the technology development plan, and the business development plan (a good opportunity for the future “founding team” to have an independent critique of their preliminary business plan). An example available through the CIHR is the Proof-of-Principle: Phase 1 competition. The objective of this grant is to develop academic innovations toward commercialization. The “cost” associated with Proof-of-Principle: Phase 1 funding is as described above for CIHR research grants.

Translational centres

Translational centres are increasingly evident in the academic life sciences community. Their mission is to fully capitalize on the R&D emerging from (usually affiliated) large academic institutions/hubs. These centres come in many flavours from fully equipped and staffed organizations designed to mimic a biotech company (an example is the Centre for Drug Research and Development (CDRD), based in Vancouver, Canada, to virtual centres with experienced ex-industry staff (such as MaRS Innovation, Toronto, Canada). Common to all is a source of independent funds that can be used to de-risk technology. However, the origin (e.g. Big Pharma partner) and “cost” of these dollars varies and must be carefully considered. For example, in return for financial support, the translational centre (or its funding partner) may acquire certain IP rights, such as a first-right-of-refusal; alternatively, the centre may seek an equity stake in any resultant company, or rights to any future revenues generated by the supported technology.

Non-dilutive financing can be used to “test-drive” the technology, team and business plan

This post provides an overview of potential non-dilutive funding sources that can create value by de-risking technology, building a founding team, and incubating a business plan prior to company incorporation. This is a strategy that we have used successfully and we would love to hear of other examples of creating value before establishing a company. In a following post, we will discuss how these concepts can be extended once the resultant company has been formed and the technology licensed from the associated research institution.

James Taylor and Euan Ramsey

The Patent System in Brazil

During the ’60s, biology was not patentable. Genetic engineering started during the ’70s, but it was called recombinant DNA technology back then. Investments made in this area demanded a solution for intellectual property (IP) rights being applied to biology.

Though living organisms were not patentable before, genetic engineering and particularly applications in the pharmaceutical area gave rise to the Trade-Related Aspects of Intellectual Property Rights (TRIPS) Agreement, which allows patent protection to be accorded to inventions in the area of Pharmaceuticals. (The TRIPS Agreement is Annex 1C of the Marrakesh Agreement under the World Trade Organization, signed in Marrakesh, Morocco on 15 April 1994.)

Brazil signed the agreement, with 13 other WTO members. When Brazil signed TRIPS, it automatically had to reorganize its patent regulatory system. Brazil then approved a patent law in 1996 (Law 9279) and the next year approved a plant variety protection law (Law 9456). These adjustments came a few years after TRIPS, and the Brazilian patent law incorporated what was minimally required in the TRIPS Agreement.

Our patent law offered the possibility to patent (recombinant) microorganisms that satisfied what was required for granting patents — a not-obvious invention. But it also provided the option to adopt a sui generis system (the UPOV system) to avoid patenting genetically engineered plants and animals – both not required by TRIPS. Patent law and the plant variety protection are hardly compatible (See Castro L.A.B. Revista da ABPI , March/April 2011). Those who have genes and protect the gene technology by the Patent Law also want to have the ownership of whole genomes of plants. The negotiation with agribusiness has progressed, however, since in Brazil farmers can measure the benefits and thus pay for the technology fees, mostly charged by large corporations. This has made Brazil second in the world to the USA in biotech crops.

The big disagreement came in pharmaceuticals. The Brazilian law incorporated TRIPS-endorsed principles that were never accepted by the international pharmaceutical sector, particularly compulsory license. The Brazilian law allows for patented products to be manufactured in Brazil if it’s deemed that prices established by pharmaceutical companies (mostly multinationals) are abusive.

Next the Brazilian government, under the stimulus of the health public sector, modified the Patent Law and established with ANVISA (equivalent to FDA in the USA and to EMEA in Europe) that those willing to patent in pharmaceuticals, and having applied for this purpose at the National Institute of Intellectual Property, needed an agreement from ANVISA. This rule makes the Brazilian process longer than any other in the world, and it is under judicial dispute.

The Brazilian Patent Law is very restrictive, as we can see in the Article 18 of the Law, which deals with biology matters. The Law 9279 prevents patenting parts of organisms, be it microorganism, plant or animal. Cells are not patentable .Genes are not patentable, unless essential for a patented process.

Biopharmaceuticals are not patentable. Molecules derived from the huge Brazilian biodiversity are not considered inventions even if these molecules are isolated and their function demonstrated. As a result Brazil has not one molecule patented from our biodiversity. In addition the general patent performance of Brazil, as compared to Korea, for instance, is extremely weak. The almost nonexistent number of patents from Brazil deriving from our biodiversity has been previously discussed on this blog.

Patenting is an essential instrument for partnerships, which is an absolute requirement for the pharmaceutical industrial sector in Brazil, that is funded with national money, to partner with large corporations (which have been in Brazil for decades, some for a century) to ascend to the large international market. This strategy is the only one that will allow these “native” pharmaceutical companies to become relevant actors in the international scene. Fortunately, the private sector is aware of the importance of patents as an instrument for partnerships. Thus partnerships are occurring in Brazil, despite of our patenting restrictions in biology. As result the Brazilian pharmaceutical industry is growing and is responsible today for 40% of the market in Latin America. The demand for pharmaceuticals is growing at 10% per year. In fact Brazil is leading an emerging biotech boom in Latin America. But it could do a lot better if our regulatory patents system was reviewed.

Brazil patents.JPG

Patents granted by the USPTO for selected countries – " pedidos" = deposits ; " concessões " = granted.**

Luiz Antonio Barreto de Castro

Measuring Global Biotech: The Worldview

In the latest edition of the Scientific American Worldview we continue to ask the vital question of global biotechnology development: Who is doing what, and how well are they doing it? In developing the scorecard that is a central feature of Worldview I continue to seek to identify the global leaders in biotechnology and to provide a framework that can measure the progress and potential of countries – especially ones that are not currently regarded as world leaders.

Why should countries support biotechnology, and why is it worth measuring their progress? The answer is simple: biotechnology can enable countries to improve their economies while enhancing the quality of life and health of their citizens. Biotechnology brings more than the simple promise of economic prosperity; it can also dramatically improve the quality of life of a country’s citizens. Countries with strong innovation capacities can independently develop solutions for domestic problems – such as endemic health issues and agricultural, industrial and energy needs – while those without the ability to innovate must rely on others to develop and sell them solutions.

This project is not just about broad regional comparisons – a quick examination of biotechnology company numbers, size, and revenues would give a fast answer to who the current leaders are – this project’s goal is to dig deeper into the innovation potential of individual countries and the multiple factors that should be taken into consideration. Consider, for example, size: how does one compare the productivity of the United States – the world’s largest economy – with that of a smaller nation? It is important to recognize both the advantages that come with larger size, and the increased intensity seen in many smaller countries. Furthermore, biotechnology activities are not restricted to the manufacture of products; many companies are active in services such as contract research, clinical-trial management, consulting and other activities with non-tangible outputs. As a result, the Worldview scorecard uses diverse measures – including educational attainment of a nation’s population and research and development (R&D) funding and activity – to capture the broad array of activities and factors supporting biotechnology innovation.

It is important to recognize that the scorecard should not be viewed as a simple ranking of the countries. Rather, the sum of the annual editions should be seen as measures of the relative innovation capacities of individual countries, and an opportunity to examine the factors driving change over time. When examining these data, it is important to consider that a high innovation score does not necessarily mean that a country is producing a lot of biotechnology products, or is an ideal market in which to sell biotechnology products; these measures indicate the environment and capacity for biotechnology innovation. The analysis provides a multi-faceted perspective of global biotechnology innovation, and should therefore be viewed as a tool to compare countries on multiple, not single, measures.

The response and feedback to the Worldview scorecard has been very interesting. Beyond some of the more conventional comments, we have also received some unexpected responses. Some country representatives have thanked us, despite receiving a low score, for simply being listed among the set of leading biotechnology nations. Others have complained of having too high a score, frustrating efforts to lobby for governmental support. A dynamic discussion on Turkish biotechnology has also developed on my blog.

Recognizing that numbers can only tell part of the picture, the Worldview project also includes an abundance of narratives, providing deeper perspectives on the global biotechnology industry. Check out the latest issue of Scientific American Worldview.

Yali Friedman

The Entrepreneur’s Bookshelf

books1.jpg

Joyce’s Ulysses. Huxley’s Brave New World. Faulkner’s The Sound and the Fury. Some of the most important books ever published in the English language. Or so I’ve heard. I’ve never read them. Of course, I want to read them. I suspect most of us have a reading list we apparently only manage to add to.

Well, here a few more candidates. I took note of the titles and authors of every book that came up during presentations or discussions over two years in the Kauffman Fellows Program, which I’m proud to say I recently completed. Somewhere between a mini-MBA course, a field guide to best practices in venture capital and entrepreneurism, and a self-help seminar, the KFP offers a group of change-the-world-type Fellows the opportunity to listen and learn from some of the best minds in business and innovation. Needless to say, I made sure to listen closely to what these people were telling me. What they were reading, or did read and deemed valuable, seemed important too. I think I caught every literary reference. To be clear, this isn’t a class reading list or required texts, but rather a compilation of off-the-cuff comments on impactful reading from a group of highly accomplished business people.

Here’s the list:

  • • Dialogue: The Art of Thinking Together – William Isaacs
  • • Thought as a System – David Bohm
  • • Primal Leadership: Realizing the Power of Emotional Intelligence – Daniel Goleman, Annie McKee, Richard Boyatzis
  • • Silent Messages: A Primer of Nonverbal Communication – Albert Mehrabian
  • • The 7 Habits of Highly Effective People – Stephen R. Covey
  • • The Speed of Trust – Stephen R. Covey
  • • The Rise of the Western World: A New Economic History – Douglass North and Robert Paul Thomas
  • • Crossing the Chasm – Geoffrey Moore
  • • The Post-American World – Fareed Zakaria
  • • Five Dysfunctions of a Team: A Leadership Fable – Patrick Fencioni
  • • Ethics for the Real World – Clint Korver
  • • Predictably Irrational – Dan Ariely
  • • Topgrading: How Leading Companies Win by Hiring, Coaching, and Keeping the Best People – Bradford Smart
  • • Joyless Economy -Tibor Scitovsky
  • • Mr. China: A Memoir – Tim Clissold
  • • Sharkproof: Get the Job You Want, Keep the Job You Love… in Today’s Frenzied Job Market – Harvey Mackay
  • • Gates of Fire: An Epic Novel of the Battle of Thermopylae – Steve Pressfield
  • • Where Good Ideas Come From – Steven Johnson:
  • • The Back of the Napkin: Solving Problems and Selling Ideas with Pictures – Dan Roam
  • • How We Decide – Jonah Lehrer

Looking over it now, I see an overarching theme of effective leadership, one of the most important elements in successful entrepreneurship and company building. Leadership is an expansive concept, so works on communication and team-building, ethics and integrity, and reflections on personal strengths and fallibilities all emerged from the group discussions.

I suspect that I’ll peruse most of these books at the library or bookstore, yet read only a few in their entirety. As I’m prone to do, which is somewhere in between I guess, is read a few thorough book reviews, and walk away feeling like I’ve read the books themselves. I can’t be the only one guilty of that infraction.

Of course, if you have a reaction to the list or suggestions for additions, please leave a comment below.

Adam Bristol

Strategic Issues Facing Biotech Start-ups

My last post talked about broad classes of technological innovation – novel research methods and tools, novel mechanisms of action or targets, novel compound types and novel treatment modalities – and the common business models associated with them. The type of technology a company has influences the choice of business model, since the technology bears on the need for specialised assets, such as manufacturing and distribution that may or may not be readily available, and on the ease of transferring knowledge about the technology to collaborators, licensees or acquirers. Some technologies are readily written down in standard operating procedures or lab reports, whilst others may be more art than science and their implementation may require extensive personal expertise. However, technology type is not the only factor driving a firm’s choices.

The hard reality is that drug development is an expensive process and access to capital is a massive constraint. The high costs are largely driven by the high quality standards inherent in clinical trials and manufacturing in order to pass stringent regulatory hurdles that stand between our innovations and commercialising a product. And for the most part, we need access to assets that are outside of our companies – such as clinical and regulatory capabilities, manufacturing, sales and marketing infrastructure and the like. Financial constraint often impairs our ability to build these assets internally, some of which may be needed to deal with regulatory burden.

The environment is tough. How do biotechs choose the best strategy? Which business models work best? There are no easy answers or good data to help make these decisions. The knowledge and data are simply not available because the biotechnology sector is too early in its life cycle to provide stable patterns of performance. Even the early successful biotechs have significant differences in strategies – Amgen commercialised a few blockbuster drugs, Genentech focused on smaller markets (e.g. specific cancer therapeutics) and Genzyme focused on very rare diseases.

However, I have made several observations (during my doctoral research) about strategies for biotech start-ups. Firstly, companies often endeavour to progress as far along the value chain as possible – capital and capabilities permitting. Certainly this is the trend that has emerged in the wake of the platform company era. There is a strong tendency for start-ups to plug in to the value chain at the point where they either run out of capital or they require complementary assets (such as sales and distribution) that they cannot easily access.

That is to say, biotech start-ups often enter into a partnering transaction when they can no longer raise enough capital to continue along the value chain independently or when they reach some kind of obstacle that they do not have the skills or resources internally to overcome.

Secondly, it is not uncommon for companies to pursue therapeutic indications where there are lower regulatory barriers, such as orphan diseases or acute uses for a drug rather than chronic, thus lowering cost and risk. Many companies focus on reformulations of existing drugs to minimise cost and risk.

Thirdly, in the absence of sufficient capital to bring their innovations to market, biotech companies pursue a number of supporting strategies:

  • Leveraging strategies
  • Survival strategies
  • Alliances
  • Strategies for building credibility

Leveraging strategies

All companies that I studied faced significant cash constraints. This caused companies to add value to, or to de-risk, more than one asset, and also to use assets in more than one way. For example, preclinical and phase 1 safety data may be applicable to more than one product based on a single molecule or technology. Similarly, proof-of-concept in a first indication may strongly suggest that proof of concept will be likely in other indications. Companies typically have a pipeline of projects that they intend to develop, and leveraging strategies are used to ensure that money spent enhances the value of several projects. (See also Taylor and Ramsey’s post for more ideas on leveraging strategies.)

Survival strategies

Survival strategies are often tangential. Examples include the provision of contract research or contract manufacturing services to third parties in order to generate surplus cash flow. Survival strategies are aimed at ensuring that the company lives until it earns a return on its core business. Sacrificing the first-born project through an early stage deal provides cash flow that will improve the firm’s chances of survival. Sometimes survival strategies are incorporated up-front as part of a business plan, whilst other times they are developed in response to financial pressure.

Alliances

Alliances are key for pursuing development and commercialisation in the face of capital constraint. Alliances can provide cash-strapped start-ups with access to complementary assets that they cannot afford to develop in house. Furthermore, alliances often provide the third-party validation and credibility, which may support further raising of capital.

Strategies for building credibility

Credibility for biotech start-ups may come from several sources – the reputation of the team, the science, or key investors and alliance partners. Biotechs can pursue credibility by ensuring that their scientists participate in conferences and by publishing in peer reviewed journals. Firms can also win credibility through cornerstone investors such as large pharmaceutical or biotech companies and respected venture capital firms.

The key strategic issues (capital constraint, regulatory burden and the need for complementary assets and credibility) faced by biotech firms are inter-related. Combine those with project-specific factors, such as market opportunity and competition, and the decisions about ‘what’, ‘when’, and ‘how’ to plug into the value chain are shaped. Over my next few posts I am going to explore the implications and trade-offs that surround each of these strategic decisions, beginning with ‘what.’

Janette Dixon

Five Day Filter

Here’s what you may have missed this week around the world in biotech:

Michael Francisco

Malaysian BIONEXUS incentives

malaysia.jpeg

As we started our work in Japan in 2000 on nano-scaffolds for corneal limbal stem cells (jointly with a group of polymer scientists headed by Yuichi Mori), the very first strategic move was to start collaborating in India, for two reasons. One was we needed a solution for treatable corneal epithelial damage-related blindness, and the other was the availability of qualified and skilled corneal surgeons.

The next move was to have a technology transfer tie with Malaysia, simply because the local investors there were willing to invest their hard-earned money in a biotech venture focused on a personalized immune-cell-based cancer treatment protocol that has been a medical treatment procedure in Japan since the late ’90s.

I was wondering what makes these investors come forward to invest in such ventures, and a brief exploration lead me to the incentives the Malaysian Biotech Corporation uses to attract investors and technocrats from near and far.

Imagine a government body that offers:

• An exemption from tax on 100% statutory income for 10 years from the day your company starts earning statutory income.

• A concessionary tax rate of 20% for another five years.

• Exemption of import duty and sales tax on raw materials, machinery, equipment and their components.

• Double deduction on expenditure incurred for R&D and that for the promotion of exports.

• 100% ownership and freedom to bring in knowledge workers from overseas.

• Exemption of stamp duty and real property gain tax within a period of five years until 31 December 2011, when undertaking a merger or acquisition with a biotech company.

• Tax deduction equivalent to the total investment made in seed capital or early stage financing when a company or individual invests in your company.

• Industrial Building Allowance to be claimed over 10 years with effect from 2 September 2006, on buildings used solely for the purpose of biotech-qualifying activities

• Tax exemption on dividends distributed to your company.

All this is part of what is called “Bionexus” status, as described by the Malaysian Biotech Corp. What’s been the impact?

• As of 6th May 2011, 188 biotech companies have been awarded the Bionexus status.

• Total investment has been 1.96 Billion RM (about US$600 million).

• Among the 188, close to 50% companies have started making profits.

• Five companies are now listed on international and local stock exchanges with market capitalization totaling close to RM1 billion (US$300 million)

One of the major difficulties companies with bionexus status face is the initial seed money for start ups, which the government is trying to address by various means.

Those who have biotech products and services for the South and Southeast Asian market (for which Malaysia can be good hub) with a technical team ready to move to Malaysia in place, should consider applying for the “Bionexus” incentives.

(The author is one of the directors of VisionTec Sdn Bhd, Malaysia. References for this post can be found here and here.)

Samuel JK Abraham