DEVELOPMENT OF EFFECTIVE NATIONAL RESPONSE SYSTEMS1

1995 ◽  
Vol 1995 (1) ◽  
pp. 783-785
Author(s):  
Edmond P. Thompson

ABSTRACT A commonsense approach is proposed for the provision of guidance to developing countries engaged in the formulation of national oil spill response systems. Key to the concept is the development of the system by the country's own professionals with the help of an international assistance team (IAT). The membership of the IAT is custom designed to suit the culture and technical needs of each country. The international assistance team provides the training necessary to the professionals from the receiving country who will draft the national response policy and oversee the drafting of the national contingency plan. The IAT then enters into a partnership with this core group to complete the remaining response system development. The involvement of the IAT decreases as the program progresses towards self-sufficiency. The program's goal is to develop a sustainable response system. The planning process will follow already established, internationally accepted practices such as risk assessment and identification of sensitive areas to protect. In cases where the identified risks and sensitive areas necessitate a larger system than the country can sustain, bilateral and regional agreements will be sought to guarantee rapid assistance in the event of a spill. The program is compatible with the concept of “twinning,” where a developed country enters into partnership with a developing country, thereby increasing the sustainable level of response.

1995 ◽  
Vol 1995 (1) ◽  
pp. 926-926
Author(s):  
Duane Michael Smith

ABSTRACT With the implementation of the Oil Pollution Act of 1990 came the requirement for vessels to develop plans for responding to oil spills from their vessels. While some companies had such plans in the past, the National Response System did not formally recognize their existence. Individual vessel response plans must now be viewed as an integral part of the National Response System. All of the parties that could be involved in an oil spill response must begin to view themselves as one tile of many that make up the mosaic known as the National Response System.


2001 ◽  
Vol 2001 (2) ◽  
pp. 1009-1013
Author(s):  
Douglas L. Mutter

ABSTRACT The Oil Pollution Act of 1990 requires identification of sensitive areas through the area contingency planning process. In 1992, a process was begun in Alaska to identify and document information about sensitive areas that could be affected by oil spills. Sensitive areas are based on natural resources and human uses, such as wildlife habitats, land management designations, fish hatcheries, cultural resources, hunting and fishing locations, and community water intakes. At the request of the U.S. Coast Guard, a Sensitive Areas Work Group (SAWG) was established in 1992 to prepare the “Sensitive Areas Section” of Alaska's first Subarea Contingency Plan (SCP). The SAWG continues to identify sensitive areas for all 10 subareas of the state, covering 365 million acres of land and 47,000 miles of shoreline. The SAWG coordinates with and reviews sensitive areas identification and mapping carried out by federal and state agencies and oil spill response cooperatives. SAWG participants vary by subarea, but include federal and state natural resource trustee agencies, local governments, nonprofit organizations, oil spill response cooperatives, and oil industry companies. In 1995, the SAWG prepared a 5-year strategic plan with these objectives: (1) establish a process to develop and maintain sensitive areas information; (2) present, in a standard format, sensitive areas information in all 10 SCPs; (3) map sensitive areas and develop more detailed computer-generated maps; and (4) provide input to the development of detailed response plans. Results to date include: (1) establishment of the SAWG as a statewide team for identifying and maintaining sensitive areas information for spill response planning; (2) completion of sensitive areas sections for all 10 SCPs; (3) participation with the National Oceanic and Atmospheric Administration (NOAA) in preparing environmental sensitivity index (ESI) maps/data files for four subareas and initiating work on five others; and (4) participation in the creation of over 75 site-specific response strategies prepared by stakeholder teams for high-risk sensitive areas. The cooperative process used in Alaska could serve as a model for sensitive areas identification elsewhere.


Author(s):  
Aigul Aldungarovna Aitpaeva

The article focuses on the importance of digitization of agriculture for rising the competitiveness of the domestic agro-industrial complex (AIC). In order to obtain an objective picture of APC nowadays, there have been analyzed the supplies of the staples in the Russian Federation and revealed the problems with producing milk, beef, fruit and vegetables of sheltered ground. It is stated that today Russia is actively implementing import substitution strategies in the sectors of the national economy including the agricultural sector. The main purpose of functioning of the national AIC has been determined as ensuring the parameters of food security for the population of Russia. There are considered the burning issues on achieving food self-sufficiency, the solution of which lies in increasing the competitiveness of the national AIC. The emphasis is placed on the need to transfer agricultural production to the ecological and economic principles of management and the rational distribution of using all types of resources. It has been recommended to assess the soil-climatic and economic potential of the territory in order to identify the priorities of food self-sufficiency for basic types of food in all regions of the country. Formation of the organizational and economic mechanism for creating competitive advantages of AIC helps to develop agricultural production on the innovative basis and to ensure the long-lasting food security at the federal level. The factors increasing AIC competitiveness are: economic soil fertility, usable agricultural areas, optimization of the structure of sown areas, system development of fodder production and animal husbandry, digitization of agriculture, etc. There have been analyzed the problems of insufficient digital prevalence in agriculture; the role of digitalization in achieving the parameters of food security is substantiated. The study results can be used to improve the mechanism of ensuring food security for the population of Russia.


10.28945/4393 ◽  
2019 ◽  
Vol 18 ◽  
pp. 331-353 ◽  
Author(s):  
Sibongile S Simelane-Mnisi ◽  
Andile Mji

Aim/Purpose: The purpose of the current study was to investigate whether the effectiveness of the Technology-engagement Teaching Strategy using personal response systems with student’s approaches to learning will increase the pass rate in the Mathematics course Background: The challenge in this study was to develop the learning activities that accommodate individual differences and diversity in learning. Furthermore, Studies investigating students’ approaches to learning have mostly done this in a face-to-face learning environment as opposed to incorporate exploration thereof when integrating educational technology. Methodology: A mixed method approach was used. The basis of using this method was a combination of quantitative and qualitative approaches which gives a clearer understanding of research problems than either approach alone. Participants were 240 students registered for Mathematics II at a study University of Technology in South Africa. Purposeful, convenience and simple random sampling were used to select the participants. Contribution: No study that has investigated the utility of personal response systems with students’ approaches to learning is currently available as observed by the researcher. In this case, the combination of the two variables in this study makes it unique and therefore important in contributing to the body of knowledge focusing on the role of technology in pedagogy. Findings: The results showed that while the majority of students followed the Strategic Approach the same Technology-engagement Teaching Strategy was used for students following Surface Approaches. The Technology-engagement Teaching Strategy was developed in such a manner to accommodate students following different approaches. The personal response system continuous assessments, as well as the semester test, revealed the improvement in academic performance as well as the increase in mathematics pass rates. It was also found that using personal response system enhances students’ mathematical communication skills, and helps to develop the skills needed to write and read mathematical proofs. Recommendations for Practitioners: It is recommended that academics take into consideration the students approaches to learning in their teaching practices. It is crucial that lecturers take advantage of technology to enhance their teaching practices and decrease the fear of the unknown and open up to new innovations in teaching. Recommendation for Researchers: It is recommended that the use of personal response systems should be explored in different mathematics settings (different lectures and universities). Such an exploration according to the researcher will be useful in endorsing what has been reported in this paper. Impact on Society: The results revealed that the Strategic Approach was the most dominant among the participants in this study. The results also showed the improvement in students’ academic performance as well as the number of students who passed increased. Future Research: A further research study could be conducted with students in a different discipline where poor academic performance is experienced.


2021 ◽  
Author(s):  
◽  
Renato Herrera Hernández

<p>This study provides an analysis of the use student response systems in undergraduate and postgraduate classrooms. Research was conducted utilising a qualitative analysis approach, grounding theories by reviewing related literature, interviewing lecturers and conducting class observation. The study was carried out over two consecutive trimesters, summer 2010 and first trimester of 2011, at Victoria University of Wellington, New Zealand. By conducting this research it is hoped to help improving the quality of teaching. Within this study, it was determined that student response systems are useful for both engaging student and increasing their overall enjoyment of the class. The benefit of using student response systems in the classroom was also found to be dependent on preserving the novelty of the technology and keeping students’ responses anonymous, by redesigning lecturers to have proper student response system questions in order to make the most out of the technology. Overall, this study determined that the decision whether or not to utilise student response systems in the classroom should be made based on the level of education of the class and its objectives, whether it is a lecture, tutorial or seminar, with clickers working best in large size, undergraduate classrooms.</p>


1999 ◽  
Vol 14 (3) ◽  
pp. 48-51 ◽  
Author(s):  
Sunil Sookram ◽  
Garnet Cummings

AbstractThe most recent tragedy in Manitoba illustrates that disasters can strike any community. Within Canada, a tiered disaster response system exists. Even though physicians often play an integral role in the disaster plan, few participate in the planning process or even appreciate their potential role in the event a disaster should occur. Physician involvement would guarantee health matters be appropriately addressed resulting in reduced mortality and decreased morbidity. There are ample opportunities to become involved in disaster planning and response at all levels government. The objective of this paper to inform physicians about the disaste planning infrastructure that exists in Canada, show them where they may get involved, and urge them to do so.


Author(s):  
Murray E. Jennex

Cyber war and cyber terrorism is real and is being waged. Cyber terrorists and cyber warriors are attacking systems and succeeding in their attacks. This requires management to prepare for the worst case, the loss and destruction of critical data and systems. This chapter helps management prepare for this worst case by discussing how to design and build emergency response systems. These systems are used to respond to worst case attacks. Additionally, these systems are useful for responding to other disasters that can cause the loss of systems and data. This chapter presents research into emergency response systems and concludes with a model of what an emergency response system should consist of.


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