Stages of the policy and planning process Problem setting Institutional settingProblem definition• Actors/stakeholders• Dimensions of problem• Problem theory (recourse use/state)• Future outlook/time horizonPolicy/plan formulation• Actors/stakeholders (formal/informal)• Goals, objectives, targets• Solution devised• Means proposedPolicy evaluation• Evaluation criteriaPolicy/plan implementation• Actors/stakeholders (formal/informal)• Implementation procedures• Enforcement• Coordination• Effectiveness (social acceptance, resource availability)ResourcesResourcesrequirementsby activityActivitiesActors(formal and informal)&Resource regimesFormal constraints(Laws, rules, consultations)Informal constraints(Norms of behaviour,rules of conduct, social conventions)Environment characteristicsFig. 1. Methodological framework of the interactions at principal stages of a policy and planning process(Adapted from: Briassoulis, 2004)lations and interests in particular activity-resource combinationsdetermine which goals, objectives and targetsare promoted actually for the problem solution, and whichtheory is adopted. Moreover, because by the time theproblem reaches this stage the physical setting may havechanged, the problem for which policies and plans areformulated may not coincide with that originally defined.The devised solutions result from the interactions between,on the one hand, the physical structure and spatiallevel of the problem setting and, on the other, the actorsinvolved, effective resource regimes, technology, availableinformation and scientific knowledge, the presence ofuncertainty and the broader policy and non-policy context.The influence of resource regimes is most evident at thisstage; resource users promote problem solutions compatiblewith their ownership and rights. Well-establishedresource regimes, such as land property, will produce betterdefined solutions because the rules of the game areclearer and less uncertain. In contrast, the poorly-definedor non-existent regimes at a certain spatial level will generatemore uncertain solutions or no solutions leading toneglecting, overusing or free-riding of certain resourcesthat may cause their damage. Proposed solutions may requirethe establishment of new resource regimes, wherenone exists. Extant resource regimes may also influencethe types of solutions promoted and whether these aretechnological or non-technological.Because of institutional interplay, solutions at onespatial level will bear the influence of regimes at higherlevels and affect regimes at the lower. For example, localwater use observing the national water laws has also toconform to supra-national regulations and respect the waterrights of neighboring areas. The spatial fixity of mostenvironmental resources produces a keen competitionamong potential users with incompatible interests andamong conflicting uses requiring the same resource simultaneouslyand contemporaneously. Thus, in achievingthe desired goals, the key challenges facing the design ofsolutions are a need for spatial co-ordination and optimalcombination of preferred activities. Combining mitigationand adaptation activities in confronting climate change isa classical example of the latter.Summarizing the policy/plan formulation stage,Briassoulis (2004) noted that formal and informal actors(usually the most powerful) conceive policies according totheir particular interests but not according to intrinsic characteristicsof environmental resources. Design principlesare rarely holistic from the viewpoint of resources andserve the needs of activity-related interests. Accordingly,the proposed solutions very rarely account for other actorsand for the relationships among all resources in a problemsetting. The end result is that the use of otherwiseindivisible resources is functionally compartmentalizedand becomes subject to different regimes and competentorganizations. Nevertheless, “The spatial co-ordination ofresource use and of the required means, congruent withenvironmental carrying capacity limits, is rendered problematicif not infeasible. The advanced solutions inevitablyproduce unanticipated impacts, generate winners andlosers, jeopardize the possibility of integrated resourcemanagement and, eventually, of sustainable development”(Briassoulis, 2004, p. 123).Policy/Plan Evaluation outcomes hinge crucially onthe assumptions, logic and approach to evaluation as wellas on the criteria adopted. They all are determined by the‘evaluators’ and extant resource regimes. As result, onlyselected aspects of activities and resources are evaluatedwith conflicts arising when pro-conservation and pro-developmentinterests have opposing preferences. The resourceregimes may introduce an evaluation bias if they donot emphasize a resource’s all aspects and functions; theevaluation may not account holistically for interrelationshipsamong resources and activities. Higher-level resource regimes,e.g. international treaties, may suggest criteria thatare too general or irrelevant for lower levels. The obsoleteregimes may prove useless, if not irrelevant, for evaluatingcontemporary policies and plans resulting in the evaluationthat reflects the socio-political biases.Policy/Plan Implementation. The institutional complexityis highest and its implications are most obviousat the policy and plan implementation stage. This activitydepends heavily on ‘implementers’ that include policymakers, formal policy implementers, intermediaries, lobbiesand other constituency groups, policy recipients,— 111 —
mass media, etc., which belong to different organizationsand operate at various spatial levels. Moreover, some ormost of them may not have participated in the activities atthe previous stages. Their participation and effectivenessdepend on their official roles, interests in the problem situationand informal rules of conducting. The patterns ofinteractions among implementers during implementationare not always formally established or clear, frequentlyevolving into either co-operation or rivalry. Lack of coordinationamong resource regimes and implementingorganizations as well as among implementation proceduresis common because of the interest-led characterof policy/plan formulation. Implementation effectivenessdepends critically on availability of means, optimal combinationand co-ordination as well as on the enforcement ofpolicy/plan provisions – the requirements that are rarelymet in practice. “Enforcement depends crucially on thesocial acceptance of proposed solutions, the systems offormal and informal sanctions and provided rewards, andthe compliance culture of recipients. Implementers whodisagree with proposed solutions or with procedures thatdiffer from their customary practices will most probablynot observe policy or plan prescriptions, or they will ‘bendthe official rules’ and use available means for other purposes.This is particularly crucial at the level of the actualresource users”, – Briassoulis (2004, p. 124) concluded.Extensive discussions about sustainable developmenthave brought sharply the subject of renewableresource management. Undoubtedly, if the process ofdevelopment is to be sustainable, then essential renewableresources, including those considered as drivers ofclimate change, need to be optimally managed. However,despite even the best efforts, these resources may still hita crisis state.A key goal of renewable resource managers is to takeactions to ensure that the resource being managed staysaway from irreversible or crisis states, in which it providesneither consumptive nor non-consumptive services to humans(Batabyal and Beladi, 2006). This statement is especiallyimportant for developing countries and some countriesin transition that are largely agrarian (for example,Moldova). These countries are significantly dependent onrenewable natural resources, and particularly those thatare inherit in their local environment (e.g. soil, water, pasture,grasslands, etc.). Given the nature and the extent ofthis dependence, the optimal management of renewableresources is an extremely important policy objective.Time, taken for a renewal, provides information aboutthe character of a resource. If, depending on the existingstock, a resource can renew itself within decision-makingperiods, it is relevant to humans without targeted humanintervention. A renewable resource can exist in a finitenumber of states, some of which are desirable, others– undesirable, and some of the latter are likely to be irreversible.In these irreversible or crisis states the resourceis so degraded or transformed that (no matter how hard tomanage it) its return into origin or more favourable state isimpossible. The objective of renewable resource managementin maximizing the amount of time a resource spendsin the desirable set of states, or in minimizing the amount itspends in the undesirable—but not the irreversible—set ofstates (Batabyal and Beladi, 2006).ReferencesBatabyal A.A. and H. Beladi, 2006: Renewable ResourceManagement in Developing Countries: How Long Until Crisis? Reviewof Development <strong>Eco</strong>nomics, 10(1): 103–112Batchelor, C.H., 1995: Water Resources Management andAgricultural Production in the Central Asian Republics. Report on anAgro-Hydrological Consultancy to Sub-Project 7 of the WARMAPProject, June 1995, Institute of Hydrology, Oxford.Briassoulis H., 2004: The Institutional Complexity of EnvironmentalPolicy and Planning Problems: The Example of MediterraneanDesertification. Journal of Environmental Planning and Management,47(1): 115–<strong>13</strong>5.Cain J., C. Batchelor, D. Waughray, 1999: Belief networks:A framework for the participatory development of natural resourcemanagement strategies. Environment, Development and Sustainability1: 123–<strong>13</strong>3Millennium <strong>Eco</strong>system Assessment, 2005: <strong>Eco</strong>systems andHuman Well-being—Synthesis. Island Press, Washington, DC. [http://www.millenniumassessment.org/documents/document.356.aspx.pdf].Noorbakhsh F. and S. Ranjan, 1999: A model for sustainabledevelopment: integrating environmental impact assessment and projectplanning. Impact Assessment and Project Appraisal, 17(4): 283–293Varone F., Reynard E., Kissling-Nбf I., Mauch C., 2002: InstitutionalResource Regimes: The Case of Water Management in Switzerland.Integrated Assessment 3(1): 78-94.Walker, B.: 2006: A Resilience Approach to Integrated Assessment.The Integrated Assessment Journal, (IAJ), Bridging Sciences & Policy5(1): 77–97.ЭНТОМОФАУНА КИЦКАНСКОГО ЛЕСА КАК ОБЪЕКТ ИЗУЧЕНИЯВ ПЕРИОД ПОЛЕВЫХ ПРАКТИК (1993–2010 гг.) ДЛЯ СТУДЕНТОВ-БИОЛОГОВЛ.В. Котомина, С.С. ШешницанПриднестровский государственный университет им. Т.Г. ШевченкоFAUNA OF KITSKANY FOREST’S INSECTS AS AN OBJECT OF STUDY DURINGTHE FIELD PRACTICE (1993–2010) FOR THE STUDENTS OF BIOLOGYL.V. Kotomina, S.S. SheshnitsanField practice on zoology of invertebrates play defining role in formation of the biologist. Many years the basic place for the practice is Kitskanyforest. In article data are resulted about rare and usual species of forest’s entomofauna on the basis of gathering of students. The factors negativelyaffecting a biodiversity of insects of the forest are specified.Полевые практики по зоологии беспозвоночныхиграют определяющую роль в подготовке специалиста-биолога.В процессе их прохождения будущий специалистне только закрепляет полученные на лекционныхи лабораторно-практических занятиях знания, но иприобретает необходимый минимум навыков полевыхисследований для будущей самостоятельной работы.Лекционные и лабораторно-практические занятия,— 112 —
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Descrierea CIP a Camerei Nationale
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Уважаемые коллеги,
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доме, в котором мы в
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с малыми восстанов
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Литература1. Жадин
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Рис. 3. Многолетняя
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тера и глубины изме
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ПОДДЕРЖАНИЕ БИОРАЗ
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Таблица 5. Оптималь
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Таблица. Результат
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ФОРМИРОВАНИЕ БИОЦЕ
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Подавляющее больши
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Рис.1. Днестр вблизи
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сопоставимости дан
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ции с международны
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А.Н. Бургеля, К.П. Бу
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Выводы1. Уже на само
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тегории, виды и пор
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санитарно-эпидемио
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Таблица 4. Распреде
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реационных, монито
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Шабановой Г.А. и Кух
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могут быть убраны,
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Турунчук. Связь с с
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Праздник «День Рек
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500ЈPРис. Распределе
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Н. Гроссу * , Р. Шакир
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вий среды жизнедея
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Senecio besserianus Minder. Cypripe
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Рис.1. Почвенная кар
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половины площади п
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Рис. 2. Современное
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ПРИЧИНЫ ГЕОМОРФОЛО
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RÂURILE MICI CU ŞANSE MARIDE A FI
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ЭКОНОМИКО-ЭКОЛОГИЧ
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прибрежной зоной (п
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Строительство в пр
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государственного у
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ческий, социальный
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ми, послужило весом
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губительно влияющи
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ных за контролем и
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PECULARITIES OF DYNAMICS OF PHOSPHO
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Fig. 4. Spatial and seasonal dynami
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• inventory of point discharges s
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СТЕРИЛИЗАЦИЯ КАК С
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гормоны (в незначит
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ПРОТОКОЛ ПО ПРОБЛЕ
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воды ежегодно умир
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РАЗРАБОТКА ПЛАНОВ
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ставляет материаль
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• Совершенствован
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«Алые паруса». Таки
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which the Committee is then require
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нием, культурой и х
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- Николаевская церк
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Сброшенный на 50 м б
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СТРУКТУРА ГЕОИНФОР
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4. Пространственная
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На фазе пика числен
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А.А. Тищенков, В.В. М
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Распределение видо
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цветковый (ККП, ЧКУ,
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очередной задачей
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схемой планировани
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эксплуатационным п
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ных дамб, с возвращ
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ледствия от урбани
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ОСНОВНЫЕ ФОРМЫ ДЕГ
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УЧАСТИЕ НЕПРАВИТЕЛ
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струкции как от сбр
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Рогоз широколистны
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Таблица 3. Изменени
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В рамках первых тре
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Основные экскурсио
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2. Кравченко Е.Н. При
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Decision-Maker user group are respo
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может ее запускать,
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поражения населени
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тию РДЮЦ «ГУТТА - кл
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мость разработки н
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Биология. Подорожн
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банизированных тер
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Результаты исследо
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площадь ассимиляци
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Рис. 3. Дендрограмма
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Рис.1. Сезонная дина
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Молдовы и Приднест
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Ребята приехали в 10
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Рис. 1. Численность
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жений, в том числе э
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[4]. Несомненно, выжи
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КОНСТИТУЦИОНАЛЬНА
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В настоящее время б
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8. Суворцева В.Ю., Ру
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Окончание табл. 2Ок
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содержаниеПРЕДИСЛ
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А.П. Погребняк, В.Ф.
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Научное изданиеБАС