-DATE- 19920221 -YEAR- 1992 -DOCUMENT_TYPE- -AUTHOR- -HEADLINE- Castro Speaks to Academy of Sciences -PLACE- CARIBBEAN / Cuba -SOURCE- Havana Radio Rebelde Network -REPORT_NBR- FBIS-LAT-92-041 -REPORT_DATE- 19920302 -HEADER- ========================================================================== Report Type: Daily report AFS Number: FL2402200092 Report Number: FBIS-LAT-92-041 Report Date: 02 Mar 92 Report Series: Daily Report Start Page: 2 Report Division: CARIBBEAN End Page: 9 Report Subdivision: Cuba AG File Flag: Classification: UNCLASSIFIED Language: Spanish Document Date: 21 Feb 92 Report Volume: Monday Vol VI No 041 Dissemination: City/Source of Document: Havana Radio Rebelde Network Report Name: Latin America Headline: Castro Speaks to Academy of Sciences Author(s): President Fidel Castro at ceremony marking the 30th anniversary of the Cuban Academy of Sciences at the Havana Convention Center on 20 February- recorded] Source Line: FL2402200092 Havana Radio Rebelde Network in Spanish 2100 GMT 21 Feb 92 Subslug: [Speech by President Fidel Castro at ceremony marking the 30th anniversary of the Cuban Academy of Sciences at the Havana Convention Center on 20 February- recorded] -TEXT- FULL TEXT OF ARTICLE: 1. [Speech by President Fidel Castro at ceremony marking the 30th anniversary of the Cuban Academy of Sciences at the Havana Convention Center on 20 February- recorded] 2. [Text] Distinguished guests, comrades: 3. Really, I have nothing to say or to add to the brilliant and clear report Comrade Rosa Elena [Simeon, president of the Academy of Sciences] has given. She wanted me to speak. She was insistent, but I said: You have to speak. Now, she has said in her speech that some time after lunch they had told her that I was not going to speak- that I was on strike. [laughter] Really, she has done very well. I have been trying to see if she has forgotten anything, but she has not. 4. At the beginning, I saw that she was talking about the Academy of Sciences a lot. I thought Rosa Elena was going to forget the effort that all the other scientific research centers have made. Had she forgotten that the Academy of Sciences is related to all the scientific research centers? But, of course, we are commemorating the 30th anniversary of the Academy of Sciences, and she had to speak, above all, on everything that had been done in those 30 years and on the work done by the scientific research centers of the Academy of Sciences. 5. Of course, I am not saying that, at a given time, the Academy of Sciences transferred a number of centers, which passed to different state organizations. It was thought appropriate to distribute some agricultural centers to the Agriculture Ministry, or those of the sugar industry to the Sugar Ministry. Also, other organizations, like public health, already had their own research centers. She gave the figure of 179 centers, or 100 what? It does not matter; next month there will be a few more. [laughter] There are 173. Those centers have (?been set up) and are working. We do not want the Academy of Sciences to neglect these centers for one minute. The Academy of Sciences is the guiding organization. It does not have to administer them all. It administers a number of research centers and service centers also. But it has to direct all the centers in general. I think the Academy of Sciences is an integrating factor for the sciences. 6. We have three integrating factors, or two besides the Academy of Sciences. There is the Spare Parts, Equipment, and Advanced Technology Movement. We had to add those things to the name, because it began by being a spare parts movement, a forum. It has solved many problems, gathering together many workers, many technicians. This Spare Parts Movement also had two parts. One was for young people, because we had the Youth Technical Brigades. There are many young technicians who are employed in different factories or industries. A few hundred thousand were organized for discoveries, research, and innovations. Another part is what we call the Association of Inventors, Efficiency Experts, and Innovators. These are technicians who are older than 30. 7. These two parts worked within this movement, but the Spare Parts Movement and forum did not include the scientific research centers. This forum or movement has an annual event now. At the beginning, it was held every two years. Now it is annual. At the end of the year, we have a meeting of the whole movement, but it now includes the scientific research centers. The scientific research centers participated in the last forum-because I can say that in Cuba it is not only the scientists who do research. We would be in a bad way if only scientists did research. It is true that we have now, in the scientific research centers themselves, tens of thousands of science workers. I have already said that we have about 10,000 researchers, but we also have all the middle-level technicians, the workers who cooperate in one way or another. 8. You saw here that some of those who received medals were from the Department of Workshops of the Academy of Sciences, workers who cooperate with the scientists, and without whom the scientists would not have the materials needed to carry out their research. But the point is that, in Cuba, we have not only almost 10,000 scientists. We have the university professors. We can say that all the universities are doing research, all of them. We can say, for example, that all the medical schools are working on a program to develop monoclonal antibodies, led by a Center for Monoclonal Antibodies that is now building a new facility for research and production of monoclonal antibodies. It should be finished this year. It is difficult to build a center of this type because it has many technical requirements. 9. The medical schools, of which there are 21, have promoted the production of monoclonal antibodies. This shows what can be done with the universities, professors, and doctors. We have many medical research centers. We are doing research in practically all the hospitals. There is no reason for limiting scientific research to the Angiology or Cardiology or Oncology Institutes. We have 12 or 13 institutes of this kind, but we have many good hospitals and excellent groups of doctors, with their laboratories and equipment. We are promoting research in all the hospitals. Research can be done even at the polyclinics. 10. I am speaking, in this case, primarily for the guests from other countries. Our fellow countrymen know these things in general. But we think that even a polyclinic can do research, in its own work, its own services. You do not know the research.... [rephrases] Even family doctors do research. If they are at a factory, they can study what illnesses occur most, what the health problems are, how many people have hypertension, for example, or how many have respiratory or circulatory problems. Sometimes we discover high cholesterol levels in groups of relatively young workers. We discover high blood pressure also. 11. Naturally, this has to concern us. This had existed before, but we did not know it. Family doctors did this research and made these discoveries. The family doctors also study any kind of historical or genetic factors in a community that are having an effect on the number or type of illnesses, because illnesses do not occur at the same rates. Even the cases of mental retardation or retardation in psychological development have been studied by the educational research institutions. They have conducted a number of studies on all of these issues that are very interesting. 12. I think there is an immense scope for research, for using intelligence and creative work. I have mentioned the polyclinics. There are so many areas; for example, the need for physiotherapy. The family doctors and polyclinics have discovered this. We had not even imagined the tremendous need there was in this field and the number of people who have orthopedic, muscular, or other types of problems. They need physiotherapy. So in each of the polyclinics in Havana, for example, we are developing physiotherapy services because one day we discovered that hundreds of thousands of people needed these services. One day they need heat treatment, another day electricity, another day massage, another day exercises that they had to be taught to do. Well, I would say that almost half the population needed these services. They did not exist at the polyclinics. 13. These facts and their solutions were discovered by the polyclinics themselves. So medical research can be done at the level of the polyclinics and, I repeat, at the level of the family doctors. The family doctors can be researchers by observing everything that is happening around them, under, of course, the guidance of the polyclinic management, the guidance of the overall organizations. We do not know what may be there to be discovered. 14. But research can be done not only at the hospitals but also at the factories. No one knows what can be done in the nickel industry in the field of research. The industry has its research institutes, but there are no institutes in the factories. Experiments can be conducted, innovations and rationalizations can be made, things can be discovered because there are dozens of high-level technicians and dozens of university professionals in every factory. In agriculture, each agricultural enterprise should do research, starting with the agronomists who are there. We are always advising them to do research at each enterprise. 15. Of course, many of the agricultural researchers were at the research centers before. Now they are in the field. In recent times, a movement to send researchers to the agricultural production enterprises has begun. There are different kinds of soil. Even the same variety of crop does not grow the same in different soils. In each region of the country, the same variety grows differently, because there is a different microclimate in each region of the country. For example, rice production, which is apparently so simple, but our geographic position.... [rephrases] We are between two parallels-I do not remember now what they are-the 24th. What are they? Parallel 24 and what? Havana is 23, and the Turquino Peak is what? It must be less. It is not 19. We go down so far; we are between 4 degrees. Anyone would say that our climate conditions are the same. But if you plant rice in Pinar del Rio, the western region of the country, in July, you will harvest one third of the rice you could have harvested if you had planted it in January, February, or March. 16. But in Granma Province, in the eastern region of the country, you will get a good rice yield if you plant in August. So on our own little island, the growth of that crop is different in the eastern region than in the western region. One is amazed by these phenomena. But in addition, within a region, growth is different in different soils. If the soil is sandy, much more water is needed, and different types of problems exist. If the soil is black clay, there is one type of growth. If the soil is red clay, growth is different. 17. This is for rice. But it is the same for sugarcane. We are working with sugarcane using dozens of varieties. Rosa Elena said that we produced 26 percent because, of course, we have varieties that are not Cuban only. We have varieties from many continents, many countries in the world. We have brought them here; we have tested them. We use them as genetic material to develop new cane varieties. That is why we have dozens of varieties, and we are looking for more. Now, through tissue culture and based on the possibility of producing a plant from one cell of cane, we can accelerate the process of looking for new varieties, and not only the process of looking for new varieties, but also the process of accelerating the introduction of these varieties. 18. So, if normally we need 10 years, we can do it in two because we can begin to produce many plants of one variety in the laboratory. With the traditional method, we had to plant it and wait one year or 10 months before we could take some little pieces of cane. Now we can get thousands of plants from one cane. If we have a very promising variety, we can multiply it quickly. I am giving examples. 19. Another example is the cultivation of micro-plants with bananas. When there is an exceptional plant that, under conditions equal to those for the other plants, produces a bunch weighing 80 or 85 kg, we select it immediately and multiply from it. By natural methods, we could get five plants, five offshoots from that plant. With tissue culture methods, we can get 30,000. So you can plant 13 hectares with the aerial or surface microjet system, we could say that from one plant we can plant 13 to 14 hectares. This is so you will see how many possibilities are arising. 20. But the idea I was talking about is that each variety, soil, region, and microclimate determine different growth in agriculture. There is our own, famous tobacco, from which those cigars have been made for a long time, and [name indistinct] always appeared in his photos with one of those big cigars. People have tried to produce those famous cigars in many places, in Central America, Santo Domingo, other places. After the embargo against Cuba began, they tried to produce that good tobacco in other places. They did not succeed, because it is a problem of the microclimate. 21. Do not think that Cuban tobacco is planted anywhere in Cuba. It is like wine. You have probably heard about quality wines that come from a certain valley, a certain vineyard, a certain variety. They say that even wines are different each year. No two harvests are the same because no two years have the same number of sunny days, the same amount of rain, or the same level of relative humidity in the air. All these factors influence the harvest. Our high-quality tobacco depends on small plots of land in certain valleys. 22. I am saying all this simply to demonstrate that if you have an agricultural enterprise with 5,000 or 10,000 hectares, and you have 20 agronomists there, those 20 agronomists have to be doing research based on the scientific and research center literature. We have some very good agricultural research centers. The research must be done, not only by our institute for-what is it called [words indistinct] INIFAT. But what does that mean? Institute for Basic Research in Tropical Agriculture. But it is not there. What have they done? They have gone to the enterprises, and at each enterprise they have demonstration areas. They are introducing their new varieties and their new techniques. We must take science to the fields, not only what they and their researchers generate, but also the practical tests that all the agronomists at the enterprises can be doing in cooperation with them. 23. I can tell you that the possibilities are enormous. They are now planting cress hydroponically. Cress has traditionally been planted here in water tanks near the ocean. They use an incredible amount of water. They also use fuel, as you can imagine. You have to have a river running through each tank. They are promoting hydroponic planting, or the planting of cress with microjet irrigation. No one knows the amount of water this could save. They are producing enormous amounts. They cut the cress every 25 days. They can get 10 to 12 cuttings per year. They can get 25 to 30 tons from one cut. They can get tremendous amounts of cress with microjet irrigation. This is a new technique. 24. We have to find a specific soil. Perhaps it will not be sufficient to provide cress for the entire city. We have to find other areas, other techniques, where we can produce it. 25. What I have said about agriculture can be applied to industry. What I said about the hospitals can be applied to industry. There is no reason it could not apply to industries, since we have tens of thousands of university professionals, and if the universities can do research, why not the factories? This is what we are doing, and not only with the university-graduate technicians. There are many middle-level technicians who can contribute innovations and discoveries in research. There are many outstanding workers or middle-level technicians who are not university graduates. We know many of them who have made important contributions to research. 26. In fact, what we are doing now is to extend research to the entire country, set everyone to doing research, experimenting, rationalizing, innovating. It is a real revolution in the concepts of scientific research. There are hundreds of thousands of people participating in this, hundreds of thousands. A small factory often appears at that forum with a large discovery, much larger than the factory, to conserve fuel or to solve problems. Now that we are in a fuel crisis, a serious crisis, everything that has to do with fuel conservation has enormous importance. The fuel emulsifiers are very important. Certain mechanical changes to the equipment and the use of alternative sources of energy are also important. 27. I think you know, for example, that we produce the equivalent of 4 million tons of fuel in cane bagasse. A large part is used by the sugar mills themselves, because that is an energy source for the mills. A mill can operate with 70 percent, or even less, of the bagasse it has. The rest can be used as raw material or fuel for different industries. Tremendous efforts are being made with the use of magnetizers, for example, in fuel conservation, or to prevent obstructions in the microjet valves or boiler pipes, conserving fuel and gas with materials, and many things. The use of magnetizers is becoming very important, the use of magnetizers in agriculture, what effect water that has been magnetized has on the growth of certain plants. Many of these things have been done empirically. The tests are being done, not only at the research centers but at the base level-at the research centers. 28. Of course, now, as it says there, the preservation of this country's independence today depends primarily on science and technology. That is a great truth. Perhaps the most important resource this country has is not the great deposits of nickel. We have nickel and cobalt, mixed with iron, chromium, and aluminum. Well, there are the resources of our climate, the natural resources for recreation and relaxation along hundreds of kilometers of our coasts, with wonderful beaches. But the most important resource this country has is the investment it has made in the minds of the people. That is the most important resource our country has. 29. That is why we do not say in vain that today the solutions to the country's problems basically rest, at this very difficult time, on the people's minds, on the investment that the revolution has made in the people's minds. We are really giving this a great boost. In recent times, the sciences have been gaining great momentum in our country. This is work for hundreds of thousands of people. 30. I think that this is.... [rephrases] If I stress anything on a day like today, it is this. We recently had a meeting with the Food and Agriculture Organization representatives in our country. I think they were dedicating a new office. I had the opportunity to speak there at length about what we are doing in agriculture, applying science to agriculture in the food program, since we now have to see how we will produce more food-more meat, milk, protein, food in general-with much less fuel, which at times affects our irrigation systems, and without fertilizers or animal feed. This is a difficult task. It is a great challenge. 31. That is why for us, the bacteria that was mentioned here-the azotobacter-is extremely important. As you know, leguminous plants have their own bacteria, which also has to respond to the soil to fix nitrogen from the air through the rhizobium. But the graminaceous plants do not usually have bacteria associated with their roots to fix nitrogen from the air. However, there are bacteria in the soil that fix nitrogen from the air. Our scientists in the field of agriculture are on a real search for azotobacters, because each crop needs its own specific type and each soil may need its own specific type. We already have the facilities, because these are fermenting processes, and we have many facilities with large equipment for fermentation, primarily the torula factory. 32. Almost all these biological processes require fermentation, and we have a tremendous fermentation capacity to produce all the azotobacter of each of the varieties needed for each of the crops needed. Do not think that this is something old. It was only a few months ago that we talked about azotobacter for the first time, during a visit I made to INIFAT, the Institute for Basic Research in Tropical Agriculture. A scientist there told me: Well, we are working on that bacteria, and we propose to produce 100,000 liters this year. I said: What do you mean, 100,000 liters? How many do we need? In less than 72 hours, we had made the necessary arrangements to produce 1 million liters of azotobacter. 33. So all the vegetables here in Havana Province and other places have been grown with azotobacter. Of course, it is better if you can give them a little nitrogen because the azotobacter is not going to produce all the nitrogen, but the azotobacter saves at least 30 percent of the nitrogen. Not only does it save nitrogen, it also acts to stimulate the plant. In a research project, it has been possible to see the difference in growth of each plant. This may be with a tuberous plant like malanga, or a tomato plant, or any other vegetable. You can see the enormous difference in growth between those to which azotobacter was applied and those to which it was not applied. The growth is different depending on different applications of azotobacter, up to the point where it makes no difference if you add more azotobacter. This is something notable. 34. Now they are studying (azoestirilo), another bacteria, a different kind-not a variety of bacteria but a different bacteria. We are going to see if by adding bacteria and varieties of bacteria-we must discover them in the soil and multiply them, and as I have said, we are able to do this-we can reduce the amount of synthetic nitrogen that must be applied. But if you use a leguminous plant, the rhizobium can produce almost all the nitrogen the plant needs, and not only that, but it leaves the soil enriched with nitrogen. 35. We must find natural ways of enriching the soil. We can rotate sugarcane with soybeans, certain amounts of cane, for example, the cane we would plant in May and June. Those are not good months for planting cane. There is a lot of rain. But the soybeans can be planted in April and May, when you grind the cane, with the appropriate applications of rhizobium, because we do not have to depend only on what is in the soil. If you apply the rhizobium, apply the rhizobium cultures to the seeds, those seeds fix much more nitrogen. You harvest the soybeans and immediately plant the sugarcane, almost without having to turn the soil again, possibly just plowing the furrows. 36. We have begun a certain amount of this study this year, but to study the situation, next year we will plant tens of thousands of hectares, rotating sugarcane with soybeans, and then plant cane in the second half of the year. That is a much better time to plant, with much higher yields per hectare than for cane planted in May and June. The quality of the crop is not good and cannot be good during the heavy rains. 37. That is what this means.... [changes thought] And here I have given a medal to the center that worked on the azotobacter, and I gave another to those who worked on the (microrriza). This is a fungus, but what are its virtues? It multiplies the plant's roots. It multiplies them to the point where, if you have a cubic meter of land and you apply this microorganism, you can extract 10 to 15 times more nutrients from the soil than if you did not apply it, because this microorganism grows on the roots of some plants. We are studying it for sugarcane and many other things. It multiplies the roots to create a tangle of roots that take up the entire volume of the soil where the plant is. If there is a trace of phosphorus, it can get it. So in a difficult situation, the use of microorganisms like this is a very great help to retrieve the nutrients that are in the soil. Sometimes the level of certain nutrients is low, but it is sufficient if the roots can retrieve them. This revolutionizes all the agricultural concepts. 38. Rosa Elena also mentioned the use of bacteria to reduce the density of oil and to get much higher extraction of oil from the same well. Biotechnology has fabulous potential, and this is also recent. It was only a few years ago that we opened the Center for Genetic Engineering and Biotechnology. We had opened a smaller center previously to produce interferon. It was less than five months between the time the news reached this country that interferon existed and could be beneficial to treat cancer or certain types of cancer and the time when we were producing it in Cuba. When we want to work quickly, we can accelerate the processes for producing medicines because they are very important. 39. This interest in finding medicines in the fight against cancer has boosted science in our country. Because many lives could depend on those results, we established the principle of the dedication of the scientific worker. A life could be saved, depending on a research project, so there is no right to rest. You must work night and day, all the hours it is possible to work. You must work every day of the week. Today we can say that it is not one life-today it is the country, it is the country's life-that depends on the research efforts. That is why I would say that dedication is a very important principle that I should mention today as an essential thing, an essential principle, for researchers, revolutionary researchers, patriotic researchers. 40. It is very important because of the urgency we have attached to solving a great number of problems. In the health field, there is a world of problems. New medicines are being found; some of them have been mentioned here. There are others that have not been mentioned, but they may be relatively spectacular. A new field has opened up, a tremendous field for the country's development. Some high-technology medical equipment has been mentioned. We are working on that. They also gave a medal today to the Central Institute for Digital Research [ICID], for its contributions in this field. 41. We could have given a lot of medals here today [words indistinct]. However, there was not enough space. But there are many people and many centers in this country that deserve medals. Twelve were awarded. I think that, symbolically, the comrades who received them deserved them. They are representative. There are many centers and many researchers that could have received these medals here today. As you saw, they even gave a certificate to me. That was a surprise. No one had told me anything because, of course, if they had told me, they know I would have been opposed. They deceived me, or at least they withheld information from me. They did not tell me they were going to give me a certificate, and they surprised me here with the certificate. You know, I value it a lot. But I received it under protest. 42. I was saying that the ICID people received a medal. They have developed very important equipment. We have an entire research center to produce equipment to support science. Of course, they produce some very valuable medical equipment, but their basic function is to support science with this research and production center. They have developed the programs and automatic equipment for the CENPALAB [Center for Production of Laboratory Animals]. Of course, to make the programs and automatic equipment means that with $10,000 we can do something that would cost $100,000 if we imported it. With one-tenth the expense, we can solve the problem ourselves, because that center for laboratory animals is a very complex thing, very complex. It needs to monitor a large number of variables: temperature, humidity. This must be done automatically. We make this equipment at the research center here. All the research centers have very complicated equipment, more and more complicated equipment. The ICID is at the service of the other research centers, especially in the field of biotechnology. So they are making a colossal effort in this area. 43. I said before that the issue of scientific research had become a matter of mass participation. I should say something very important now, which is almost a privilege for us. In a capitalist country, all the research centers compete with each other. All the hospitals compete with each other. All the doctors, for example, compete with each other. A country that has social or socialized medicine can get all the doctors to cooperate with each other, all the medical institutions to cooperate with each other. But more important, it can get all the research centers to cooperate with each other. 44. Those 173 centers have to work in a coordinated way and support each other. If one has some very sophisticated equipment, it should use it not only for its work but also to provide service to several other centers. If another center needs research in that area, that center can support it and cooperate with it. This is why we have created the scientific hubs. In biotechnology.... [rephrases] For example, the western region should have three, in biotechnology, industry-because this is not in the field of biotechnology-and humanities, the humanities hub. The scientific hub for biotechnology has dozens of institutions. The agricultural centers are included, all of them, because that is a biological field. This includes genetic engineering, immunoassay, tropical medicine, even the food industry institute, CENIC [National Center for Scientific Research], the Finlay Institute, even a new pharmacy school that we have put under this area. The ICID is included. There are many centers that are part of this hub. 45. Those doing research on sugarcane are included. They meet every month. There is a vice minister of public health who presides over that hub. Close cooperation has been established between all of them. I say that this is a privilege of socialism. If each research center has a different owner, they are in competition with each other. They do not cooperate with anyone. They keep what they are doing secret. Of course, this does not happen by spontaneous generation. If you let them, scientists under socialism begin to emulate each other, and they begin to establish a kind of competition between each other. 46. Do not imagine, you visitors, that our scientific effort has been free from mistakes, blunders, and faults. I should say that when we started, we did not know anything about science. We wanted to work in science because all we had was a clear awareness that science was going to play a fundamental role, would have to play a fundamental role, in our country and the entire Third World. It is one of the factors that determine the great difference between the developed world and the underdeveloped world. 47. You cannot call them anything else. Some people euphemistically say the developing world, when they should say the opposite: the underdeveloping world. Every day they get further apart, and there is a greater gap between the developed world and the underdeveloped world, the Third World. A determining factor of this enormous difference-which came about for historical reasons that this is not the time to analyze-has to do with science. They are the only ones who do research. In addition, they take away the best minds of the Third World. This is not because many intelligent people from the Third World lack patriotism, but rather that they like science, they have a scientific vocation, but they have nowhere to do research. They do not have equipment, laboratories, or anything. So they go. They leave their countries. They come back to visit from time to time. 48. The brain drain is one of the most dismal and harmful things the Third World has to endure. Anything that shines a little is taken away. Nothing is left. If there are no research centers, if some intelligent minds stand out, they are taken away. What is left for the Third World countries? It was very clear to us that science had to be promoted. But what was science? We did not really know. What was an academy of sciences? We did not really know. 49. Well, Rosa Elena has said that the first Academy of Sciences was founded in 1861. Of course, there was somewhat of a scientific tradition in Cuba, because there were some outstanding scientists, but they were only individuals, over the course of more than 100 years or so. I would say that for every scientist in Cuba during the last century, or even at the beginning of this century or before the revolution, today there are, there must be, at least 1,000 scientists. I am not counting university professors, university graduates, or all those who may do research. 50. But we did not know what an academy of sciences was. We made some initial efforts. We made some blunders. We did not have experience. Among other things, we did not have enough personnel. There were problems at certain times when industry and other sectors wanted to take the most skilled students. The universities wanted to keep them; the ministries wanted to keep them. Really, what needs to be done is to give priority to the scientific research centers. Those who have the most aptitude and ability must be channeled into science. Not so that they will be the only researchers, but so that they will be the vanguard of the researchers. Because there must be hundreds of thousands of researchers. Everyone must be a researcher. But we must train that vanguard. 51. Of course, we did not do everything well, but we have been learning. We were aware from the very first of the importance of science. I think today we know something, something but not enough, but we know something, about what we must do in this field. We have been discovering this. We have also given enormous importance to the application of scientific achievements. We would not accomplish anything if we did research and more research and put off applying those scientific achievements. Of course, we have been forming a truly scientific mentality in our country. We could say that this is now a policy. For a policy to work, there must be a basis, a culture. There must be education and awareness. We must form that awareness. 52. But I see that everyone in our country is being armed with the tool of science and research to confront our problems. I will not even try to list the number of fields and opportunities science offers our country. But I can tell you as friends that it is the fundamental tool the revolution has now, in this very difficult time. To tell the truth, we are encouraged by the achievements that have been made. We cannot say we are proud of these achievements, because we should have achieved even more. If we had had the experience we have today at the beginning, we would have been able to advance much further in this field. 53. But, of course, this special period itself is forcing us to progress more rapidly. It is not just that we are aware that science is a great tool. We are not only aware of its importance, but we have an essential need, and this essential need is to boost the sciences. Do not think that we are free from the danger of that phenomenon of brain drain. In fact, we have a high awareness and great patriotism among the vast majority of our scientists. But the enemy tries to take away our scientists. Every time we become outstanding in one area or another, they try and try to find out our technologies and discoveries. That is a kind of pressure that they exert on us, but it is not the kind of phenomenon that is seen in the Third World. This is a force directed at taking away our scientists. 54. Of course, in the face of this, we can show nothing but patriotism. We can show nothing but revolutionary awareness, which is what we have in these difficult times. No one knows what some of our scientists could be paid in other countries. It would be a lot [words indistinct] scientists who lead modest lives here, with the people and the revolution, for which they would give anything. Well, this is not only true of scientists. We must say the same about many of our athletes, who have given great evidence of patriotism. Some have been offered millions to become professionals, and in general-apart from some very exceptional exceptions-they have been steadfast. They live very modestly. They have [words indistinct] graduate from university. They are not professional athletes, but in general they complete a university degree, usually associated with physical education and sports. 55. I think these are things that can be said, and since you have forced me to speak, I wanted to mention them here, without meaning to run on at length. I have already mentioned one of the issues that must be inseparably linked with our country's scientists, today and tomorrow, because when we come out of our special period, three fourths of the world will be in a special period. The inseparable factor is dedication. I am saying this now, not for our guests, but for all our dear comrades in science. 56. The second factor, the second idea, the second value- not because it is second in importance; it is as important as or more important than the first-is modesty. If I was asked what we wanted our scientists to be like, I would always say that we wanted them to be dedicated and modest. When self-sufficiency, arrogance, and overconfidence begin to take hold of some scientists, they stop being model scientists. No one-however much they know; no one, no matter what their intelligence quotient is-owes it entirely to themselves. In the first place, one's intelligence quotient is not a merit, but rather may have been inherited or must have been inherited. It is a genetic phenomenon, a combination of genes that made a person very intelligent. 57. Second, they must have had a family that would help that person to become educated, trained, and to study. They encouraged their vocation. Third, they must be in a society where they can study and go to university, without having to be the child of a millionaire or a rich person, simply with that innate capacity with which they came into the world. If society is not like that, the same thing will happen to them as happened to my little friends in Biran. None of them went to school. How many intelligent, capable children [words indistinct] first, second, and third grade in school. In Biran, no genius could get anywhere. No genius could reach sixth grade. There were hundreds of children. The son of Don Angel, the landowner, reached sixth grade. That was me. [laughter] Then he went to high school. 58. Then he studied at the university, in this case studied letters. I would have to be very critical of myself because I did not choose a science major. Really, I discovered later that it would have interested me more and was more important. To be a lawyer.... [rephrases] The last thing I wanted to do was to criticize my colleagues, because it would not be good for me to fight with them. [laughter] Because they are judges, magistrates, prosecutors, and everything. They are very powerful. But in the society in which I studied to be a lawyer-not this society-there were more than enough lawyers. There were so many that the revolution did not even want to hear about lawyers. The revolution did not show any concern about that until it discovered one day that it needed laws, justice, and that it needed many people who knew about law, and we promoted those studies. 59. Alright, but if I was born now, I would not study law, for sure. Well, if I had been born a while ago and was 15 years old now, [chuckles] or 16 or 17, and I graduated from high school, I would study for a technical, or if possible a scientific career. But, well, my little friends, the sons of peasants and workers, were not able (?to do this). So to become a scientist, you must be born into a society.... [rephrases] Because in the capitalist, developed, rich world, not all the intelligent people end up in science. In contrast, in our country, there is no obstacle that will prevent an intelligent person from going into science. There is no obstacle, whether the person is the son of a worker, peasant, agricultural worker or industrial worker, or a professional or whoever, from any background. There may be a child who has no father or mother, and is brought up in an institution or by a relative. No one needs any wealth to take up any university studies in our country. 60. Of course, this does not mean that everyone can study. At the beginning, we did promote having everyone go to university. We had a lot of needs. Now we have almost the opposite problem. There are very high numbers. We are forced to select people for university studies because if we did not, you can imagine, there would be too many. But the element that determines this is basically the young person's merits, the young person's abilities. I say basically, because sometimes the family also has an influence. We have seen that those who are born in a family environment at a high social level have certain social advantages over those who are born into a relatively middle- or lower-level household, because the family has a lot of influence in one's habits, culture, and inclination to study. Many of these things have an unquestionable influence. But, well, these are factors that are not political. They are social, and only time can bring about that equality among all families. 61. But in our country, all those who have suitable abilities have an opportunity. If such a society does not exist, if that genius is born in many Third World republics, he will never be a genius. His genius will not become a reality. There are many Third World countries where he would not have any opportunity. I should say more: Colonialism provided some scientists, but one every 50 years. 62. Capitalism here is Cuba.... [changes thought] Because there are two kinds of capitalism: that of the developed capitalist world, which colonized all the other countries, and the world of the underdeveloped countries, the Third World, which also have their capitalism, but it is underdeveloped capitalism. Whoever is born in a capitalist country of the Third World has very few opportunities to work as a scientist in his country. There are, naturally .... [rephrases] Not all countries are in the same situation. But his opportunities will be minimal. Unfortunately, that is how it is. 63. Some governments show more concern; others less. Some have made an effort; others have not. Some allocate more resources; some less. Of course, we should carry out a campaign to promote science in the Third World. We must create an awareness in favor of science in the Third World. Often when I talk with political leaders, I bring up these subjects, and in Guadalajara also, at the famous meeting at which a lot was said about integration, and a lot was said about neoconservatism. Everyone gave an opening speech there and spoke three or four times about each of the topics. I should say that I also spoke about the different topics. We were forced to be brief because there were a lot of speakers. Here there are only two or three of us, and I can speak a little longer. But there, I had eight or 10 minutes. 64. I used one speech to urge the governments to work for public health in their countries. I told them that they could do a lot with very little resources. They do not have to wait for development. They do not have to wait for development to reduce the average infant mortality rate in Latin America from more than 60 to 20 per 1,000 live births. If they were going to reduce it to our level, 10.7, they would need a significant level of medical development. But to go from 60 to 20 per 1,000 is possible for any Third World country, if they decide to spend a little money on it, if they devoted to public health some of the money that leaves through capital flight, that is wasted, even, many times, the money that is embezzled. 65. Of course, I did not say to any of my colleagues that I was thinking of any specific country. That would have shown a lack of respect or consideration, if you wish, if I were to talk about embezzlement at a meeting of leaders. My good intention was really to promote.... [changes thought] I did not want to say that, not at all. I met many outstanding, intelligent, capable, and honest leaders at that meeting. But I am talking about society. Unfortunately, in general, our societies in the Third World have very serious problems when it comes to resource management. 66. There are very serious problems with capital flight. That is a fact. But I urged them to work to promote public health. From our own experience, we understand that you can do a lot with a little in this field. The second exhortation I made was in favor of science. I urged them to pay attention to scientific research and to give resources to scientific research. Really, my conscience is at rest because I urged that. There is not enough awareness of these problems. There is not enough. 67. Perhaps more awareness has been acquired about education. There is a little more development in education, in spite of the illiteracy problems that persist, and the school drop-out problem, and the fact that more than half of the people in many countries do not reach sixth grade. But, well, there is no awareness with respect to health and scientific research in any case. I felt the need and the duty to make an effort in that regard. 68. But, well, to conclude, I was defending the thesis that genius is nothing without the group, without the society, without others. Without the nation, it is nothing. If a genius is a disinterested and a noble genius, willing to dedicate the intelligence he received from nature to the service of his people, then that genius is nothing without the revolution. 69. Today, as we commemorate the 30th anniversary of those times when, without knowing absolutely anything, we created an Academy of Sciences, let me uphold these two values for scientists: dedication and modesty. I am not going to disavow the bit about socialism or death; it is implicit, and I add: Fatherland or death, we will win. [applause] -END-