Эволюция и механизмы регуляции экспрессии повторяющихся генов в геноме Drosophila тема диссертации и автореферата по ВАК РФ 03.00.26, доктор биологических наук Калмыкова, Алла Ивановна
- Специальность ВАК РФ03.00.26
- Количество страниц 169
Оглавление диссертации доктор биологических наук Калмыкова, Алла Ивановна
Список сокращений
Введение б
Обзор литературы
Общие принципы организации и функционирования гетеро\роматина
Структура п эволюция гетерохроматиновых кластеров генов половых хромосом у Drosophila
Ретротранспозоны и их роль в эволюции генома-хозяина
Система РНК-интерференции и ее роль в регуляции экспрессии ретротранспозонов
Общие принципы работы системы РНК-интерференции
Роль РНК-интерференции в регуляции экспрессии ретротранспозонов
Механизм образования piPHK 23 Функции теломер 27 Принципы организации теломер, образуемых теломеразой
Принципы оранизации теломер Drosophila
Структура теломер Drosophila 33 Клтровапие теломер Drosophila
Хроматин, связанный с субтеломерными последовательностями
Модификации гистонов в теломерной обпасти дрозофилы 43 Структура хроматина в области повторов HeT-A/TART/TAHRE и регуляция транскрипции теломерных ретротранспозонов Drosophila
Материалы и методы
Лабораторные линии Drosophila и линии культур клеток, использованные в работе
Выделение геномной ДНК
ПЦР на геномной ДНК. Полукличественная ПЦР на геномной ДНК
Саузерн-блот анализ.
Обратный ПЦР и детекция транспозиций mdgl
Стандартные генно-инженерные методики
Выделение РНК
Полуколичественный RT-PCR
РНК in situ гибридизация
Нозерн-блот анализ тотальной РНК Drosophila melanogaster
Нозерн-блот анализ коротких РНК Drosophila melanogaster
Сочетание методов РНК, ДНК FISH и иммуноокрашпвания
5' RACE (rapid amplification of cDNA ends) анализ 62 Клонирование промоторных областей ретротранспозонов НсТ-А и ТАНЯЕаля измерения их активности 63 Получение конструкций для исследования механизма трансляционного сдвига (frameshifting) ретротранспозона
Трансфекция культуры клеток Drosuphila и количественное определение активности галактозидазы
Вестерн-анализ
Иммуноирецинитация и гель-фильтрация
Получение эксирессирующих конструкций и конструкций для Р-элементной трансформации
Тесты на активность СК2 67 Окрашивание тканей на Р-галактозидазу. Количественное определение активности Р-галактоэидазы
Результаты
Эволюционные связи в семействе генов, роде i венных регуляторной субъединице казеин киназы 2 (СК2) Drosophila
Обнаружение гена SSL (j3CK2tes) pCK2tes выполняет функции регуляторной субъединицы СК2 в семенниках
Эволюция структурных вариантов ретро гранспозона Drosophila
Структурные варианты кодирующей области ретротранспозона
Структурные варианты ДКГ1 ретротранспозона
Роль системы РНК-сайленсннга в регуляции активности широкого спектра ретротранспозонов в терминальных тканях Drosophila
Деренрессия ретротранспозонов в яичниках Drosophila у мутантов piPHK пути
Белок Piwi контролирует частоту транспозиций ретротранспозона в герминальных тканях самцов
Роль системы РНК-сайленсинга в регуляции активности теломерных ретроэлементов Drosophila
Экспрессия теломерных ретротранспозонов НеТ-А, TART и TAHRE в герминальных тканях регулируется с помощью piPHK
Увеличение частоты транспозиций теломерных элементов на конец хромосомы на фоне мутаций но генам spn-E и aub
Мутации генов spn-E и aub в гетерозиготном состоянии вызывают активные транспозиции на конец хромосомы ретротранспозона TART
Активные транспозиции ретротранспозона НеТ-А к концу хромосомы происходят на фоне мутации гена spn-E в гомозиготном состоянии
Характеристика теломерного ретротранспозона TAHRE
Ретротранспозон TAHRE участвует в поддержании теломер Drosophila
Ретротранспозон TAHRE присутствует в геномах разных линий D. melanogaster и других видов Drosophila область TAHRE обладает промоторной активностью
Экспрессия репортерных генов, находящихся под промотором ретротранспозона НеТ-А, находится под контролем piPHK пути
Свойства антисмысловой экспрессии теломерных ретротранспозонов
Картирование антисмыслового промотора НеТ-А
Анализ ашписмысловой экспрессии теломерных ретротранспозонов
Обсуждение
Эволюция повторяющихся последовательностей генома Drosophila
Роль РНКи в регуляции экспрессии ретротранспозонов у Drosophila
Выводы
Рекомендованный список диссертаций по специальности «Молекулярная генетика», 03.00.26 шифр ВАК
Роль системы РНК-интерференции в регуляции длины теломер Drosophila2008 год, кандидат биологических наук Квон, Дмитрий Аркадьевич
Механизмы регуляции длины теломер и дистанционных регуляторных взаимодействий у Drosophila melanogaster2013 год, доктор биологических наук Мельникова, Лариса Сергеевна
Роль механизма РНК-интерференции в регуляции экспресии теломерных ретротранспозонов Drosophila melanogaster2009 год, кандидат биологических наук Шпиз, Сергей Григорьевич
Транскрипционная регуляция кластеров семенник-специфичных генов Stellate y Drosophila melanogaster2015 год, кандидат наук Оленкина, Оксана Михайловна
Закономерности и биологические эффекты процесса транспозиций ретранспозонов в геноме Drosophila melanogaster1999 год, доктор биологических наук Пасюкова, Елена Генриховна
Заключение диссертации по теме «Молекулярная генетика», Калмыкова, Алла Ивановна
Выводы:
1. Установлены эволюционные взаимоотношения семейства родственных генов, участвующих в сперматогенезе. Впервые показано эволюционное происхождение в геноме протяженных участков конститутивного гетерохроматина дрозофилы в результате амплификации функционального эухроматического гена. Обнаружен новый функциональный ген, кодирующий семенник-специфичную регуляторную субъединицу казеин-киназы 2 (jBCK2tes). Являясь функциональной ретрокопией гена /ЗСК2, этот ген, в свою очередь, является предком семейств тандемно-повторяющихся генов X и Y хромосом (Ste и Su(Ste)).
2. Показано существование в одном геноме нескольких структурно-функциональных вариантов ретротранспозона 1731. Исследованы структурные варианты регуляторной и кодирующей областей ретротранспозона 1731. Выявлено наличие двух типов копий, различающихся изменениями в области трансляционного сдвига рамки считывания, а также исследован полиморфизм регуляторной области длинного концевого повтора. Показано, что недавно возникшие копии этого элемента, обладающие широким спектром экспрессии, вытеснили более древний вариант.
3. Гены, кодирующие компоненты РНК интерференции, участвуют в контроле экспрессии и частоты перемещений ретротранспозонов в герминальных тканях Показано, что компоненты, РНКи подавляют, экспрессию широкого спектра ретротранспозонов в герминальных клетках яичников. Белок Piwi участвует в регуляции экспрессии и частоты транспозиций ретротранспозонов в семенниках.
4. Экспрессия и частота перемещений теломерных ретротранспозонов в яичниках дрозофилы регулируется с помощью коротких РНК, т.о., система РНКи осуществляет негативную регуляцию длины теломер у дрозофилы.
5. Экспрессия репортерных генов, находящихся под контролем промотора теломерного ретротранспозона НеТ-А, регулируется по механизму РНКи в герминальных тканях самок дрозофилы независимо от положения репортерных конструкций в геноме.
6. Ретротранспозон TAHRE способен перемещаться на конец хромосомы, и, следовательно, этот элемент является полноправным участником поддержания теломер у дрозофилы. Установлено, что промотор ретротранспозона TAHRE, так же как у НеТ-А, находится в 3'-конце нетранслируемой области данного элемента.
7. Изучено происхождение и биогенез антисмысловых транскриптов. теломерных ретротранспозонов, необходимых для образования коротких РНК. Картирован антисмысловой промотор теломерного ретротранспозона НеТ-А. Показано, что некодирующие антисмысловые транскрипты процессируются и полиаденилируются. Антисмысловые транскрипты теломерных ретроэлементов НеТ-А и TART являются мишенями РНКи, так же как и смысловые транскрипты, и накапливаются в ядрах терминальных клеток у мутантов по генам РНКи в области теломеры, что указывает на транскрипционный механизм сайленсинга теломерных повторов.
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