Environmental Aspects of a Potential Philippines-European Union Free Trade Agreement
This paper focuses on the environmental aspects of a potential Philippines-European Union Free Trade Agreement (PH-EU FTA). Potential environmental issues in the negotiation of such an FTA (if at all undertaken) are identified to better prepare the Philippine negotiating panel and equip them with information and analysis to make well-informed positions on such issues. It looks at the interaction between the multilateral trade regime--the World Trade Organization (WTO) principally--and multilateral environmental agreements, reviews the Philippine approach to environment-related trade measures, and looks at Philippine practice and implementation of environmental agreements from a trade perspective. EU policies on trade, environment, and development are also discussed to anticipate what could be EU positions during the FTA negotiations with the Philippines. The paper ends with the following conclusions and recommendations: (1) The EU will most likely push for more harmonization of the FTA provisions with WTO rules. On the sustainable development front, the EU would push for including sustainable development principles into all levels and in cross-cutting policy areas; (2) The Philippines can expect the EU to come up with a strong position on sustainable development, expecting the Philippines to make concrete commitments to principles of sustainable development; (3) Philippine sustainable development goals are not inconsistent with the EU. However, the Philippines in the FTA negotiations would be best served to emphasize poverty reduction and financial and technical support from its EU partners.
Environmental Goods and Services Negotiations at the WTO: Lessons from Multilateral Environmental Agreements and Ecolabels for Breaking the Impasse
This analysis looks for paths to progress in the WTO’s stalled negotiations on environmental goods and services – a set of talks that is frequently cited as trade policy’s natural contribution to climate change objectives. It surveys the experience of a number of multilateral environmental agreements – The Rotterdam Convention (Prior Informed Consent or PIC), the Stockholm Convention (Persistent Organic Pollutants or POPs) and Convention on International Trade in Endangered Species of Wild Fauna and Flora – and ecolabels (looking at coffee, fisheries and the Energy Star label). The results of the survey and a new taxonomy for environmental goods are used to create six recommendations for moving forward.
Toluene degradation via a unique metabolic route in indigenous bacterial species
Tanneries are the primary source of toluene pollution in the environment and toluene due to its hazardous effects has been categorized as persistent organic pollutant. Present study was initiated to trace out metabolic fingerprints of three toluene-degrading bacteria isolated from tannery effluents of Southern Punjab. Using selective enrichment and serial dilution methods followed by biochemical, molecular and antibiotic resistance analysis, isolated bacteria were subjected to metabolomics analysis. GC–MS/LC–MS analysis of bacterial metabolites helped to identify toluene transformation products and underlying pathways. Three toluene-metabolizing bacteria identified as Bacillus paralicheniformis strain KJ-16 (IUBT4 and IUBT24) and Brevibacillus agri strain NBRC 15538 (IUBT19) were found tolerant to toluene and capable of degrading toluene. Toluene-degrading potential of these isolates was detected to be IUBT4 (10.35 ± 0.084 mg/h), IUBT19 (14.07 ± 3.14 mg/h) and IUBT24 (11.1 ± 0.282 mg/h). Results of GC–MS analysis revealed that biotransformation of toluene is accomplished not only through known metabolic routes such as toluene 3-monooxygenase (T3MO), toluene 2-monooxygenase (T2MO), toluene 4-monooxygenase (T4MO), toluene methyl monooxygenase (TOL), toluene dioxygenase (Tod), meta- and ortho-ring fission pathways. But additionally, confirmed existence of a unique metabolic pathway that involved conversion of toluene into intermediates such as cyclohexene, cyclohexane, cyclohexanone and cyclohexanol. LC–MS analysis indicated the presence of fatty acid amides, stigmine, emmotin A and 2, 2-dinitropropanol in supernatants of bacterial cultures. As the isolated bacteria transformed toluene into relatively less toxic molecules and thus can be preferably exploited for the eco-friendly remediation of toluene.