Search Results

1 - 7 of 7 items :

  • Molecular Biology x
Clear All
Detection of the genetically modified organisms from food products/ Detecţia organismelor modificate genetic din produse alimentare

References 1. Banu C, Bărascu E, Stoica A, Nicolau A. Suveranitate, securitate şi siguranţă alimentară. Ed. ASAB, Bucureşti. 2007;581-600. 2. ***Mardigian R, Wiseman B. Biotechnology Explorer GMO Investigator Kit. Bio-Rad. 2012. 3. Cristea V, Denaeyer S. De la biodiversitate la OMGuri? Ed. Eikon, Cluj-Napoca. 2004;81-125. 4. Sisea C, Pamfil D. Testarea OMG. Ed. Bioflux, Cluj-Napoca. 2009;9-18,29-32,75-173. 5. ***GMO Compass: http://www.gmo-compass.org 6. Clive J

Open access
GMO Trees: Substantial promise but serious obstacles to commercialization

Summary

This paper assesses the potential of transgenic trees to generate substantial financial returns in an environmental where there are substantial investment costs in research and development, deregulation and deployment. The formidable obstacles and in addition to the usual research and development costs, include the costs of obtaining requisite intellectual property rights. Also, there are substantial costs to achieve deregulation, and some evidence of deregulatory slowdown in the U.S., and cost of product deployment. The product deployment costs are likely to be higher than for other products, e.g., traditionally improved seedlings, due to substantial and widespread opposition (stigma) to GE in general and transgenic trees particular. As with all trees, the payoff time (harvest) is delayed longer than most other investments and the financial returns adversely affected by the delay. Additionally, the financial costs and benefits may vary substantially by country and region. Some evidence suggests that deregulation costs may vary substantially by country. Additionally, the perceived “stigma” costs are likely to vary greatly among regions thereby providing better opportunities in some markets than others. If deployment depends upon the financial and economic returns, one might expect widespread adoption among some countries, e.g., China and Brazil, where the net benefits are large, and little or no adoption among countries where the net benefits are small, e.g., countries of the EU. However, at this time the final success of GE trees remains to be witnessed. Although some firms have withdrawn entirely from the area of tree GE research, other firms continue to invest substantial sums in tree GE development presumably anticipating eventual payoffs. It remains to be determined whether the technology ultimately is broadly accepted, accepted only regionally or fails globally.

Open access
Gene Expression Studies: How to Obtain Accurate and Reliable Data by Quantitative Real-Time RT PCR / IZUČAVANJE EKSPRESIJE GENA: KAKO DOBITI TAČNE I POUZDANE PODATKE KVANTITATIVNIM RT PCR-OM U REALNOM VREMENU

qualitative and quantitative applications in GMO detection. Anal Bioanal Chem 2010; 396: 2023-9. 32. Klein D. Quantification using real-time PCR technology: applications and limitations. Trends Mol Med 2002; 8: 257-60. 33. Mocellin S, Rossi CR, Pilati P, Nitti D, Marincola FM. Quantitative real-time PCR: a powerful ally in cancer research. Trends Mol Med 2003; 9: 189-95. 34. Bustin SA, Nolan T. Pitfalls of quantitative real-time reverse-transcription polymerase chain reaction. J Biomol Tech 2004; 15: 155-66. PMCID: 2291693

Open access
Macroscopic and microscopic study of integuments on ostrich (Struthio camelus) foot

Reference 1. Alexander R.M., Maloiy G.M.O., Njau R.: Mechanics of running of the ostrich ( Struthio camelus ). J Zool, London, 1979, 187, 169–178. 2. Alonso-Calleja C., Martinez-Fernández B., Capita R., Prieto M.: La carne de avestruz: valor nutritivo y calidad higiénica. Aliment Equipos Tecnol 2002, 21, 57–62. 3. Bonnan M.F., Sandrik J.L., Nishiwaki T., Wilhite D.R., Elsey R.M., Vittore C.: Calcified cartilage shape in archosaur long bones reflects overlying joint shape in stress-bearing elements: implications for nonavian dinosaur locomotion

Open access
Results of a 16-week safety assurance study with rats fed genetically modified Bt maize: effect on growth and health parameters

blood lymphocyte subpopulations. J Anim Feed Sci 2015, 24, 134–143. 6. El-Shamei Z.S., Gab-Alla A.A., Shatta A.A., Moussa E.A. Rayan A.M.: Histopathological changes in some organs of male rats fed on genetically modified corn (Ajeeb YG). J Am Sci 2012, 8, 684–696. 7. Flachowsky G., Chesson A., Aulrich K.: Animal nutrition with feeds from genetically modified plants. Arch Anim Nutr 2005, 59, 1, 1–40. 8. Halle I., Aulrich K., Flachowsky G.: Four generations of feeding of GMO-corn to breeder quail. (Fütterung von gentechnisch verändertem Mais an

Open access
Histopathology of Internal Organs of Farm Animals Fed Genetically Modified Corn and Soybean Meal

plants. Environ Int 2011, 37 , 734-742. 4. EFSA 2008. Report of the EFSA GMO Panel Working Group on Animal Feeding Trials. Safety and nutritional assessment of GM plants and derived food and feed: the role of animal feeding trials. Sci Direct, 46, S2-S70. 5. Flachowsky G., Aulrich K., Böhme H., Halle I.: Studies on feed from genetically modified plants (GMP) - contributions to nutritional and safety assessment. Anim Feed Sci Technol 2007, 133 , 2-30. 6. He X.Y., Tang M.Z., Luo Y.B., Li X., Cao S.Sh., Yu J.J., Delaney B

Open access
Effect of feeding genetically modified maize and soybean meal to sows on their reproductive traits, haematological indices and offspring performance

proliferation in in vitro cultures. Ann Anim Sci 2011, 11 , 497 - 505. 8. James C.: Global status of commercicalized biotech/GM crops: 2011. ISAAA Brief 2011 no. 43. Ithaca, NY: ISAAA. 9. Khumnirdpetch V., Intarachote U., Treemanee S., Tragoonroong S., Thummabood S.: Detection of GMOs in the broilers that utilized genetically modified soybean meals as a feed ingredient. Plant and Animal Genome, IX Conf., 2001, San Diego, USA, Abstr. 585. 10. Kilic A., Akay M.T.: A three generation study with genetically modified Bt corn in

Open access