The Future of Sustainable Use Biodiversity in Brazil

webBrazil tried to lead the world in sustainable use of biodiversity over the last decades. It attracted the whole world for the RIO 92 summit and Eco 92. The most prominent authorities worldwide came to Rio and a host of countries signed the Biological Diversity Convention (BDC). The goal of the convention is the sustainable use of biological diversity and the fair and equitable sharing of benefits derived from the use of genetic resources, through the appropriate access to genetic resources and transfer of relevant technologies, taking into account all rights over these resources and technologies, and by means of appropriate funding – this is all in the first article of BDC.

More than two decades later, we unfortunately have to consider that the Convention failed to accomplish its first goal: conservation of the world biodiversity. Brazil fortunately did not lead this destruction but we must acknowledge that in the last three decades an area larger than Germany was devastated in the Amazon. Asia and Africa are even more drastic examples.

Also, the BDC never accomplished the equitable sharing of benefits derived from the use of genetic resources. This is mostly because benefits are protected by patents and there is no appropriate funding to assure technology transfer. Thus, I would have to say, unfortunately, that BDC was a big failure overall. But for Brazil? For Brazil it is even worse, because the principles advocated by the Convention were intended to be folded into national law, and this did not happen. These principles stated that one country could not benefit from the biodiverse richness of another without financial compensation. This is difficult because negotiations between countries in the subject of intellctual property rights are complex and results are hard to achieve.

In Brazil, the attempt to incorporate the principles of the BDC into law failed because sharing of benefits had to be exercised between scientists and indigenous people, and thus these actors had to deal with contracts in place before the benefits were known. The law (Provisional Measure 2186, 2001) concentrated the power for regulating access to genetic resources in the hands of the Ministry of Environment. It also created a council called CGEN (Conselho de Gestão do Patrimonio Genético) that controls the access to genetic resources in the worst way possible, and when Marina Silva was the Minister of Environment, she created an institution called Chico Mendes. A third actor in the process is IBAMA, which should be subordinated to the Minister of the Environment but in practical terms it is not.

The result is that all these actors did not work together and caused chaos. CGEN admitted that it does not know how to exercise the Provisional Measure, but continuously sued companies and scientists. It’s interesting to note that not one pharmaceutical product has been produced from Brazilian biodiversity (ACHEFLAN is the only exception, and it caused the company ACHE to be sued by CGEN). If one works at the Butantan Institute, home to a tremendous snake collection, and one wants to develop a pharmaceutical product from a snake poison, one must get an authorization from Instituto Chico Mendes. These authorizations take forever to be issued. Elibio Rech, a scientist from EMBRAPA, was sued because he wanted to work with spider genes encoding for important proteins. He was treated as if the spiders were going to disappear from the environment because of his experiments.

So what is the future of Brazil, the most biodiverse country in the world? A recent attempt to build a new law to replace the MP proposed by the government resulted in a version that is worse than the current. The CGEN is still there, and the control of genetic resources will be retained by the Ministry of Environment, even though there is opposition.

Attempts by scientist to go beyond science into technologies or products might still be possible. The Labor Party proposal lost and the “substitutive” won; the next step is that the “substitutive” will move to the Senate. It is still possible that some improvement will be introduced in the substitutive and improve the context greatly. Time will tell.

Luiz Antonio Barreto de Castro

Biotech for the poor

???????????Genetic engineering started in the early seventies. It was called then Recombinant DNA Technology. The first successful experiment in genetic engineering was performed by Herbert Boyer, who expressed the insulin gene in Escherichia coli. Over the last four decades, the pharmaceutical industry has grown into a multi-billion-dollar sector, and in agriculture, more than 170 million hectares have been cultivated with genetically modified plants.

This occurred because the National Institutes of Health established very early on rules to assure the safety of the work done with this nascent technology. This after the Asilomar Conference that took place in San Diego, 1975, asked for a moratorium on use of the technology, fearing that use of virus vectors might harm humans. While there have been a few lethal cases in the pharmaceutical area due to viral vectors, there have been none in agriculture, and no harm to the environment.

In Brazil the development of biotechnology, as we call it today, flourished in agribusiness, to the benefit of six major corporations: Monsanto, Bayer, Syngenta, BASF, Dupont/Pioneer and Dow. Together these companies are responsible for the cultivation of more than 40 million hectares of GM crops in Brazil, second in the world only to the United States. This is about 20% of the total grain production in Brazil and about 22% of the whole Gm crop production in the world.

Yet we cannot say the same with respect to the pharmaceutical sector, where large corporations do not invest in Brazil. We have never produced one blockbuster molecule locally, we have never registered one molecule at the FDA, and we do not have a large-scale  infrastructure to work with gene expression in bacteria, yeast or Chinese hamster ovary (CHO) cells. Brazil simply does not innovate in the pharmaceutical sector. We import, formulate and sell drugs. Every year we buy from foreign countries billions of dollars of drugs to satisfy our demand.

In this blog I’ve said that we have to change paradigms, and build a competitive pharmaceutical industry in Brazil. Is this important for financial reasons only? Of course not. It is absolutely necessary for each country to have a strong pharmaceutical industry, but the benefits of biotech have not yet reached the poor. It needs to, and this is possible if we begin to express genes in plants. To our advantage, we can already express genes from any organism in other organisms, including plants and the milk of mammals. It can be done.

The question is, Who will benefit from it? In Brazil, agribusiness properties – which are quite large, more than 300 hectares apiece – take up 76% of the entire agricultural land. This group received last year US$40 billion to finance their crops.

Family farmers have property that occupies the other 24% of agricultural land, though their plots can be as small as 20 hectares. This family group received US$6.4 billion last year, and with this money produced most of the food consumed in Brazil.

The food produced by family farmers corresponds to close to 40% of the revenues coming from agriculture in Brazil; the large properties produce 60% (that group also produces feed for local animal consumption and commodities, mostly for export). So US$6.4 billion generates 40% of the agricultural product for consumption as food, and US$40 billion generates 60% of the agricultural products for food animal consumption and also commodities, mostly to be exported.

Our proposal is to take biotechnology to some of the family farmers to add value to their products, while expressing molecules for the pharmaceutical sector to strengthen this industry.

Luiz Antonio Barreto de Castro

 

International technology transfer

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An excellent workshop on the regulation of animal biotechnology occurred in Brasilia August 18-21. It was the second international workshop on the topic, and was attended by the best specialists in the area of regulatory framework in biotechnology. I was invited to deal with challenges and opportunities for harmonization in the animal biotech field.

The theme is extremely complex. So much so that specialists agreed that a third workshop will be needed shortly. The problem is that animal biotech is a newcomer in this business. Few products have been registered by the FDA, and some have been waiting for years, such as the GM salmon of Aqua Bounty.  When recombinant DNA technology started early in the seventies, the concern from scientists was over the possible use of virus as vectors in projects related to genetic engineering, which didn’t come to fruition until two decades later. A moratorium was established, until the US National Institutes of Health put forth guidelines, which were adopted globally.

Science and technology has moved fast since then, faster than we are capable of building regulations to oversee it. In fact, we are still discussing genetic engineering in many countries, with new technologies emerging – synthetic biology and gene editing, to name a few – for which a regulatory framework has not yet been built.

In my last post, I mentioned that paradigms were shifting to allow the expression of genes coding for monoclonal antibodies in the milk of mammals, and in plants. Since then Mapp Biopharmaceutical and LeafBio used a tobacco-plant strain found in Australia to create a cocktail that fuses three monoclonal antibodies, which was shown to be capable of protecting monkeys from Ebola virus when administered immediately after exposure. FDA approved the use of this experimental drug without data from clinical trials, considering the urgency of the Ebola crisis in Africa.

This decision is under severe criticism by those with other experimental vaccines under development. The issue is that there is no regulatory framework available for these nascent technologies. As biotechnology moves along new avenues, it will be harder to create and harmonize regulations. The regulatory framework to deal with biosimilar monoclonal  antibodies is not yet in place but the products will be to the market soon.

Another issue is how to define international harmonization. There are international guidelines that are not obligatory but facultative in nature, such as the Codex Alimentarius, and there are protocols, such as the Cartagena , Nagoya and Kuala Lumpur Protocols related to the Convention of Biological Diversity. Protocols may become legal instruments after being adopted by countries, but this takes time and does not satisfy the urgent need of “harmonization” demanded by nascent technologies and/or Ebola epidemics.

How to manage this complex issue? I’d suggest it be done on a case-by-case basis. Biotechnology is science but also a business. When one country wants to adopt a new technology from another, the law to be adopted is that of the first country by the second. The country transferring the technology will have its own legislation about the matter, and the two legislations must be harmonized. Or at least compatible, for if they are not, then the transfer won’t happen and both sides will lose.

The role of countries at the forefront of science and emerging technologies is to anticipate adopting new technologies and have the appropriate rules at the ready. This way laws can be harmonized and tweaked when opportunities for international technology transfer arise.

Luiz Antonio Barreto de Castro

 

Encouraging Pharma in Brazil 2: Shifting Paradigms

shiftSlightly more than two years ago I made a contribution to Trade Secrets on the very topic I’m about to again write about. In fact I have been dealing with this subject over the last five years. I devoted a whole chapter of an eBook I published with Bentham E Books last year: Opportunities and Limitation for Biotechnology Innovation in Brazil. Why is this issue so important?

Politicians such as like Tony Blair said many years ago that a sound pharmaceutical industry is the best example of what a government can offer back to taxpayers (not with these exact words). After all, a sound pharmaceutical industry should mean the best drugs, at affordable prices. We do not have this in Brazil.

The only way Brazil can have the best drugs is to import them, and we import a lot of drugs. In the range of $10 billion and $20 billion annually to supply the SUS (Unique Health System), linked to the Ministry of Health. Why am I back to this issue?

Though the science and technology in the world today is incredible, every few years we’re obliged to review concepts and strategies, even if it is clear that there is no magic answer for all the questions we have on the table. And it’s important to remember that there are always new ideas. Brazil confronted hyperinflation from 1965 until 1994. Inflation climbed for three decades, comparable only to what happened in Germany during the 1920s. In June 1994 alone inflation was nearly 47%. It got so bad that when the Plano Real (Real Plan) was launched by Itamar Franco (President of Brazil) and Fernando Henrique Cardoso (ministry of finance, though elected president of Brazil in October that year) that we had to adopt  a new currency, the real.

Inflation dropped in later years but the cost to promote technological development in Brazil for many years and even today is the highest in the world. On the other hand, Brazil multiplied its science output by six since the ’70s, and it is now 2.6%. Nothing else has grown that quickly in the last forty years of Brazilian history. Brazil has now adopted the most ambitious program to train young scientists abroad: Brazil offered in the past 3,000 to 5,000 scholarships a year to train students in foreign countries. President Roussef now will fund more than 100,000 scholarships over a four-year period.

But what about the future? How do we adjust the pharma industry? Companies in the pharma business do not partner easily with each other. More often pharma buys what it needs. Partnering, as I’ve mentioned before, takes the issue to shareholders and may take ages to be finalized. The drug market in Brazil is growing continuously, but if Brazil wants to become an important player in the pharmaceutical area, I see only one way: change of paradigms. The large pharma firms are satisfied with their paradigms and will not adopt new ones unless they are convinced the new paradigm works and is profitable.

Whatever the goal for Brazil’s pharma industry – for instance, will it be biosimilar monoclonal antibodies? – our products must be able to compete here. Cesar Milstein, born in Argentina and the father of monoclonal antibodies, said in a conference: “between the good ideas and the Nobel Prize, (he won for contributions in this area), one must do the experiments.”

We need to do experiments, too, but our funds are limited, and we will not be able to compete even with South Korea, India and China, who are more experienced than we are at expressing genes in Chinese hamster ovary (CHO) mammalian cell lines, bacteria and yeast. Building manufacturing units to work with CHO cells in Brazil will take too long and will cost too much.

Instead of lining up against these countries to compete with Big Pharma, we need other kinds of biofactories. We should aim to express genes in the milk of mammalians, such as rEVO Biologics is doing in Boston. Of course, FDA has approved only one drug from gene expression in the milk of animals: Atryn. We have to demonstrate that monoclonal antibodies produced in the milk of animals will behave as they do when produced in CHO cells and will not be rejected by the human immune system. Sialyltransferases, which transfer sialic acid to nascent carbohydrate chains in MABs, must work properly as they do in the MABs produced by CHO cells.

rEVO is optimistic, and they are in the process of doing these experiments with MABs coming from genetically modified animals. Will that become the silver bullet? The results of the experiments will tell us.

One big way to shift our paradigm is investment. We invest modestly in science and technology. Compared to the US where R&D receives in the vicinity of $300 billion to $400 billion annually (from this issue of Science).We invest $20 billion. The Gross National Products of the two countries are not 20 times apart from each other. We should at least double our investments from multiple sources. Venture capital – the US applies $30 billion to $40 billion per year – is very scant in Brazil. Start-up companies cannot scale up their products.

Where will this money be coming from? Marcia McNutt, Editor in Chief of Science, said in a recent editorial: “today a growing number of billionaires invest in scientific research in the US philanthropically. They are unafraid to take risks and abhor bureaucracy.” This is another paradigm we have to establish in Brazil.

Of course we do not have a growing number of billionaires, and they are not philanthropists.

Luiz Antonio Barreto de Castro

 

 

Brazil and Biotech: an e-Book

stencilThe efforts to develop biotechnology in Brazil now exceed three decades. It began in Brazil at almost the same time as the recombinant DNA technology, which became publicly known early in the ’70s, when Herbert Boyer expressed the insulin gene in E.coli.

A couple of scientists in Brazil repeated this experiment almost at the same time, and the interest in this area came to the agenda of a public company called EMBRAPA, which was founded in the ’70s to work with agricultural research in Brazil.

I’ve written an e-Book (made available by Bentham Sciences), covering almost two years of my experience in the pharmaceutical area, related to biotechnology. This was all new to me, since I worked all my professional life in agriculture. Since the ’80s, I’ve been building a platform to train young scientists in plant genetic engineering and molecular biology, hoping to incorporate this nascent technology into EMBRAPA’s plant breeding efforts. This work took place at The National Center for Genetic Resources and Biotechnology (CENARGEN) and added to the efforts of a dozen excellent geneticists.

The soybean revolution in Brazil was brought about by Romeu Kihl; aluminum-resistant corn developed for the acidic, cerrado soil was created by Ricardo Magnavacca; and the foundations of maize breeding had been previously done by the late Ernesto Paterniani. Also, Eleuzio Curvello produced cotton, and Alcides Carvalho, coffee, for 52 years of his life. Dalmo Giacometti and Silvio Moreira, citrus. Marcilio Dias and Hiroshi Ikuta are the fathers of the vegetable genetics; Raul Moreira tackled banana; Ady Raul da Silva, wheat; and Frederico Menezes Veiga, sugarcane.

Through all this, plant breeding has continuously built cultivars to feed our seed industry. High-tech seeds and low-cost farming practices were the result of seed laws and plant breeder’s law in Brazil. The end result is that Brazil can competitively produce nearly 200 million tons of grain because it is cheap for the farmer.

Brazil tried to follow the growth of commercial biology. In the ’90s, Brazil introduced protections for intellectual property around genetics, but that effort was not sufficient, and thus Brazil suffered through rampant inflation for decades even as it invested in biotechnology.

I’ve written this e-book now because Brazil has emerged financially and now has more opportunities in biotech than previously. The book is intended for those who want to know some of the history of biotech in Brazil, and to ponder the power of this technology and the opportunities we now have in our hands. Brazil may become a relevant actor in this area internationally, taking advantage of some circumstances here that are not available in other countries, particularly our biodiversity.

The e-Book describes adjustments that must be made to assure the success of our investments, particularly to the laws and regulatory framework. The book investigates the immense possibilities of agbiotech in Brazil, partly because the mechanisms of public private interactions are well designed and in operation. The public perception in Brazil and many other countries has turned against genetic engineering for political and ideological reasons: when the first engineered soybean resistant to glyphosate was released commercially a campaign against transgenic plants prevented the application of this technology in agriculture for almost a decade in Brazil. However, the world adopted recombinant DNA technology in the pharmaceutical area and most products utilized internationally by the public in this industry (including Brazil) are genetically engineered.

This is a perception problem that that has to be faced globally, particularly in Europe. The only solution is to focus biotech on the issues surrounding poverty (discussed in one of the e-book’s chapters). In the pharmaceutical industry in Brazil the context is quite different. Brazil lags behind many developed and emerging countries, and does not have an equivalent to EMBRAPA in the public pharmaceutical area.

The pharmaceutical area is growing, however (in 2011, up 14%), because the market is a demanding one. But it is growing without innovation. There are initiatives that pull large, nationally funded companies together as consortia, and which propose biosimilars for monoclonal antibodies with expiring patents, but there is no innovation as an initiative. Brazil has no contract manufacturing organization, and not one cGMP-facility (the first one will be inaugurated by Cristalia this year).

Because of this, Brazil cannot scale up its pharmaceutical products, nor can it properly conduct the clinical studies needed for registration at ANVISA. Brazil has never produced a block buster or registered a pharmaceutical product at the FDA. Large corporations in general do not invest in Brazil, claiming Brazil’s patent laws are not adequate. And finally, Brazil has no risk capital funds (Burrill & Co is a solitary actor).

There is movement in the right direction, however. The government is supplying loans for biotech projects, allowing repayment in 10 to 15 years, with subsidized interest and the absence of capital payment for 3 to 5 years. Also, the federal government and private sector are funding scholarships to train 100,000 students in the next five years at all levels from high school to PhD . This is great news, but there are many more problems that need to be resolved in the coming decade.

Many discussions on these topics in the e-book were first published on this blog, and can be found here. The published e-book can be found at here or here.

Luiz Antonio Barreto de Castro