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Шами́ль Ханафи́евич Га́нцев (род. 19 апреля 1951, Уфа, БАССР, РСФСР) — советский и российский учёный и клиницист, хирург, онколог, педагог; общественный деятель. Доктор медицинских наук, профессор, действительный член (академик) Академии наук Республики Башкортостан. Заведующий кафедрой онкологии с курсами онкологии и патологической анатомии Института дополнительного профессионального образования Башкирского государственного медицинского университета. Директор Научно-исследовательского института онкологии БГМУ. Директор Клиники онкологии Республиканского клинического онкологического диспансера (г. Уфа). Член Общественной палаты Российской Федерации, заместитель председателя Общественной палаты Республики Башкортостан. Председатель Общественного научно-технического совета Технопарка «Сколково». Заслуженный деятель науки Российской Федерации, лауреат Государственной премии Республики Башкортостан в области науки и техники.

Биография

Происхождение
Шамиль Ханафиевич Ганцев родился 19 апреля 1951 года в г. Уфе Башкирской АССР. От родителей (отец — Ганцев Ханафи Алимович, 1916 г. р.; мама — Еникеева Саида Ханафиевна, 1925 г. р.) он получил свои первые уроки трудолюбия и доброты. В 1968 году с медалью окончил среднюю школу № 2 г. Уфы. Уже в школе проявились творческая активность и организаторский талант будущего профессора Ш. Х. Ганцева. Он был деятельным участником различных конкурсов, олимпиад по математике, физике и химии, спортивных соревнований.

Когда по окончании школы встал вопрос о выборе профессии, значительное влияние на Шамиля Ханафиевича оказал пример старшей сестры — Халиды Ханафиевны Ганцевой (род. 1948), студентки Башкирского медицинского института, ставшей в дальнейшем доктором медицинских наук, профессором, заведующей кафедрой внутренних болезней БГМУ.

Хроника профессиональной деятельности
 1968—1974: учёба на лечебном факультете Башкирского государственного медицинского института. Ш. Х. Ганцев был старостой субординаторов-хирургов и хирургического студенческого научного кружка;
 1974—1976: клинический ординатор кафедры госпитальной хирургии БГМИ;
 1976—1978: хирург отделения абдоминальной хирургии больницы № 6 г. Уфы;
 1978—1986: ассистент кафедры госпитальной хирургии БГМИ;
 1982: защитил диссертацию на соискание учёной степени «кандидат медицинских наук» (Казань). Тема: «Послеоперационная спаечная болезнь брюшины, обусловленная спайками большого сальника»;
 1986—1989: доцент кафедры госпитальной хирургии БГМИ;
 1989: защитил диссертацию на соискание учёной степени «доктор медицинских наук» (Московский медицинский стоматологический институт им. Н. А. Семашко). Тема: «Оптимизация диагностики и хирургических методов лечения сочетанных заболеваний органов брюшной полости (клинико-экспериментальное исследование)»;
 с 1989 по настоящее время: заведующий кафедрой онкологии Башкирского государственного медицинского института/университета;
 1991: утверждён в учёном звании «профессор»;
 с 1993 по настоящее время: директор Клиники онкологии Республиканского клинического онкологического диспансера (г. Уфа);
 с 2011 по настоящее время: директор Научно-исследовательского института онкологии БГМУ.

Клиническая, научная и педагогическая деятельность
Ш. Х. Ганцев — врач высшей квалификационной категории по онкологии. Область научных интересов и клинической практики профессора Ш. Х. Ганцева:
 Совершенствование теории метастазирования рака, развития канцероматоза брюшины, роли «сторожевого» лимфатического узла при раке на основе углублённого изучения вопросов локальной микролимфоциркуляции, неолимфогенеза, неолимфангиогенеза, микроанатомических особенностей строения органов;
 Совершенствование профилактики рака путём создания и внедрения скрининговых программ на основе облачных технологий, методов ранней иммуноферментной диагностики, организации противотабачных и иных мероприятий;
 Совершенствование хирургических (мультиорганных, органосохраняющих) и биотерапевтических методов лечения рака молочной железы, колоректального рака, рака желудка, канцероматоза;
 Разработка и апробация новых противоопухолевых препаратов, совершенствование лекарственных форм на основе нанотехнологий. Повышение биодоступности фармакопрепаратов при раке за счёт совершенствования путей и методов доставки лекарственных средств.

С именем профессора Ш. Х. Ганцева связан этап информатизации высшего профессионального медицинского образования в Республике Башкортостан и России. В 2000 г. им совместно с главным онкологом России академиком РАМН В. И. Чиссовым был издан первый российский мультимедийный учебник «Онкология», изданы мультимедийные пособия, тесты по онкологии, получившие высокую оценку на уровне РБ (Государственная премия РБ в области науки и техники) и на уровне Проблемной учебно-методической комиссии по онкологии РФ. Ш. Х. Ганцев является автором ряда книг, входящих в число лучших учебных изданий для системы высшего и дополнительного профессионального медицинского образования России по онкологическому профилю. Он автор учебника «Онкология» (издан в 2004 и 2006).

«Учебник отличается от аналогов по ряду позиций. Во-первых, строгим соответствием учебной программе. Во-вторых, использованием опыта ведущих клиник и учёных России в рамках единой образовательной концепции. В-третьих, впервые в отечественной педагогической практике медицинских вузов изложены стандарты диагностики и лечения в онкологии. Студент, обучающийся на кафедрах, получит первоначальные знания о стандартизации лечебно-диагностического процесса, что на сегодняшний день очень важно. Можно и дальше перечислять плюсы учебника, но мне представляется, что главным экспертом издания является студент. Учебник создан для него, и он его по достоинству оценит. С этой точки зрения я всецело поддерживаю издание учебника "Онкология" под редакцией профессора Ш. Х. Ганцева. [Об издании 2006 г.]».

Профессор Ш. Х. Ганцев — соавтор академика М. И. Давыдова в создании учебника «Онкология» (2010, 2013) и атласа по онкологии для студентов медицинских вузов (2008), признанного лучшим атласом России.

Ряд фундаментальных научных исследований профессор Ш. Х. Ганцев ведёт в сотрудничестве с зарубежными коллегами. Так, разработка «Создание нового метода лечения рака молочной железы на основе препаратов, полученных путём стимуляции и индукции неолимфангиогенеза», руководителем которой является Шамиль Ханафиевич, получила статус участника проекта создания Инновационного центра «Сколково». В число участников работы вошли профессор Мелоди Шварц (Институт экспериментальных исследований в области рака, г. Лозанна, Швейцария), профессор Казуо Умезава (руководитель Департамента молекулярного скрининга таргетной медицины, Медицинский университет Айчи, г. Токио, Япония) и профессор Дамир Хисматуллин (Университет Тюлейн, г. Новый Орлеан, США).

«Во-первых, профессор Ганцев выдающийся хирург. Он обладает обширными познаниями, техникой, и, самоё главное, добротой к пациентам. Кроме того, он является учёным-исследователем. Я прочёл его книгу "Атлас лимфологии" и был очень вдохновлён его новыми идеями и исследовательским духом.Впервые я познакомился с профессором Ганцевым в декабре 2011 года. Я представил ему свою разработку по подавлению воспаления в брюшной полости, что может быть применено для борьбы с различными формами онкологических и воспалительных заболеваний. Это немного необычная идея. Он говорит: "Сначала было трудно поверить в столь неординарное предложение Умезавы, но после наших многочисленных дискуссий я пришёл к убеждению в состоятельности этого замысла". Я очень рад, что, благодаря его чувству нового, мы сейчас плотно работаем вместе в разработке инновационного метода терапии рака».

Профессором Ш. Х. Ганцевым создана научно-практическая школа онкологов Республики Башкортостан, одна из наиболее авторитетных в Российской Федерации. За годы научно-педагогической деятельности им подготовлены 18 докторов наук и более 130 кандидатов наук. В числе учеников Шамиля Ханафиевича — профессора И. Р. Рахматуллина, О. Н. Липатов, А. М. Ханов, С. В. Вырупаев (все — Уфа), А. Г. Пухов (Челябинск), С. М. Демидов (Екатеринбург), П. Б. Зотов (Тюмень). С 1997 по 2012 г. Ш. Х. Ганцев был председателем диссертационного совета по онкологии при Башкирском государственном медицинском университете.

Ш. Х. Ганцев — заместитель главного редактора журнала «Креативная хирургия и онкология», член редакционных коллегий 15 медицинских журналов, в числе которых «Российский онкологический журнал», «Медицинский вестник Башкортостана», «Biomedicine & Pharmacotherapy» (ISSN 0753-3322, France), «Cancer Research Updates» (ISSN 1929-2279, Canada), «Oncology Research» (ISSN 0965-0407 [Print], 1555-3906 [Electronic], 0965-0407 [Linking], U.S.A.) и др.

Член Этического комитета Министерства здравоохранения Российской Федерации, Совета по науке при Главе Республики Башкортостан, Экспертной комиссии по присуждению Государственных премий РБ в области науки и техники, Экспертного совета при Комитете Государственного Собрания — Курултая РБ по здравоохранению, социальной политике и делам ветеранов.

Наиболее известные научные работы
Профессор Ш. Х. Ганцев — автор более 900 научных работ, опубликованных в Российской Федерации и за рубежом, обладатель более 60 патентов РФ на изобретения. Среди его наиболее известных трудов:

Монографии, учебники, учебные пособия

 Способ наложения илеоколостомы. Метод. рекомендации / Сост. Н. Г. Гатауллин, Ш. Х. Ганцев. Башк. мед. институт им. XV-летия ВЛКСМ; Уфа, Б. и., 1981.
 Диагностика и лечение заболеваний большого сальника / Н. Г. Гатауллин, Ш. Х. Ганцев, С. Н. Хунафин. Уфа, Башк. книжное издательство, 1988. 90 с. ISBN 5-295-00181-4.
 Рак лёгкого. Учебное пособие для студентов, курсантов ФУВП и практ. врачей / Ш. Х. Ганцев и др.. Башк. гос. мед. университет, Каф. онкологии с курсом ФУВП. Уфа, БГМУ, 1997. 66 с. ISBN 5-7247-0105-7.
 Бета-каротин в комплексном лечении злокачественных лимфом у детей и подростков / О. Н. Липатов, Ш. Х. Ганцев, Ф. Х. Камилов, А. М. Ханов. Уфа, Здравоохранение Башкортостана, 2002. 67 с.
 Рак и геологические формации / Ш.Х. Ганцев, В.Н. Ручкин, В.Ю. Фролова [и др.]. Уфа, 2002. 48 с. ISBN 5-8372-0047-9.
 Ассоциация онкологов Республики Башкортостан (Уфа). Сессия (2002; 6). Материалы шестой научной сессии Ассоциации онкологов Башкортостана / Редкол.: Ш. Х. Ганцев (гл. ред) и др. Уфа, Здравоохранение Башкортостана, 2002. 67 с. ISBN 5-8372-0063-0.
 Очерки о людях науки / Ш. Х. Ганцев. Уфа, 2002. 115 с. ISBN 5-85051-248-9.
 Рак лёгкого: Учебное пособие для системы послевуз. проф. образования врачей / Ш. Х. Ганцев, М. Я. Назметдинов, М. А. Мустафин [и др.]. М., Мед. информ. агентство (МИА), 2003. 111 с. ISBN 5-85051-283-7.
 Гемореологические расстройства и их коррекция у онкологических больных / Ганцев Ш.Х., Карабанов Г.Н., Тимербулатов В.М. [и др.]. Уфа, Здравоохранение Башкортостана, 2003. 207 с. ISBN 5-8372-0070-3.
 Патология и морфологическая характеристика опухолевого роста. Учебное пособие [Для системы послевуз. проф. образования врачей] / Ш. Х. Ганцев, Ш. М. Хуснутдинов. М., Мед. информ. агентство, 2003. 205 с. ISBN 5-85051-284-5.
 Рак молочной железы. Учебное пособие для системы послевуз. проф. образования врачей / Ш. Х. Ганцев, А. М. Ханов, С. М. Демидов [и др.]. М., Мед. информ. агентство, 2004. 114 с. ISBN 5-85051-285-3.
 Рак ободочной и прямой кишки. Учебное пособие для системы послевуз. проф. образования врачей / Ш. Х. Ганцев [и др.]. М., Мед. информ. агентство, 2004. 111 с. ISBN 5-85051-286-1.
 Онкология. Учеб. для студентов мед. вузов / Ш.Х. Ганцев. М., Мед. информ. агентство (МИА), 2004. 487 с. ISBN 5-89481-210-0.
 Амбулаторная онкология / Ганцев Ш. Х., Рахматуллина И. Р., Малышева Е. В. Уфа, Здравоохранение Башкортостана, 2005. 151 с. ISBN 5-8372-0131-9.
 Совершенствование диагностики грыж пищеводного отверстия диафрагмы в онкологической клинике / Ш. Х. Ганцев, Ю. Ю. Камалетдинова. Уфа, Новый стиль, 2006. 118 с. ISBN 5-94423-083-5.
 Онкология. Учеб. для студентов мед. вузов / Ш. Х. Ганцев. Москва, МИА, 2006. 484 с. ISBN 5-89481-418-9.
 TNM Атлас : иллюстрированное руководство по TNM классификации злокачественных опухолей / К. Виттекинд [и др.] ; под ред. Ш. Х. Ганцева. Москва, Мед. информ. агентство (МИА), 2007. 407 с. ISBN 5-89481-358-1.
 Нестандартные операции в абдоминальной онкологии / Ш. Х. Ганцев, В. В. Плечев, К. Ш. Ганцев. Москва, Мед. информ. агентство, 2007. 286 с. ISBN 5-89481-541-X.
 Башкирский государственный медицинский университет. Кафедра онкологии с курсом ИПО. Материалы конференции аспирантов-онкологов / ГОУ ВПО "Башкирский гос. мед. университет Федерального агентства по здравоохранению и социальному развитию", Каф. онкологии с курсом ИПО ; [под ред. Ш. Х. Ганцева и др.]. Уфа, Здравоохранение Башкортостана, 2007. 55 с. ISBN 5-8372-0146-7.
 Онкология. Учебник для студентов, обучающихся в учреждениях высшего профессионального образования по специальностям 060101.65 "Лечебное дело", 060104.65 "Медико-профилактическое дело" и 060103.65 "Педиатрия" по дисциплине "Онкология" / М. И. Давыдов, Ш. Х. Ганцев. Москва, ГЭОТАР-Медиа, 2010. 912 с. ISBN 978-5-9704-1249-7. 2-е издание: Москва, ГЭОТАР-Медиа, 2013. 912 с. ISBN 978-5-9704-2719-4.
 Заболевания шейки матки. Руководство / Ганцев Ш.Х., Рахматуллина И.Р., Орлова Р.В., Валиева Н.Г.; под ред. Ш. Х. Ганцева. Москва, ГЭОТАР-Медиа, 2011. 154 c. ISBN 978-5-9704-1258-9. 2-е издание: Москва, ГЭОТАР-Медиа, 2014. 154 с. ISBN 978-5-9704-2984-6.
 Диагностика рака щитовидной железы / Ганцев Ш.Х., Давыдович, Габбасов А.Р. Уфа, ООО Медиа Группа «Здоровье», 2012. 132 с. 500 экз.4,5 п.л. Лично – 1,8 п.л.
 Амбулаторно-поликлиническая онкология [руководство для врачей] / Ш. Х. Ганцев [и др.]. Москва, ГЭОТАР-Медиа, 2012. 437 с. ISBN 978-5-9704-2058-4. 2-е издание: 2014. 437 с. ISBN 978-5-9704-2875-7.
 Мультиорганные операции в хирургии колоректального рака. / Ганцев Ш.Х., Парфёнов А.Ю. Акад. наук Республики Башкортостан, Отделение мед. наук. Уфа, Издательство «Гилем», 2012. 186 с. 200 экз. 10,9 п.л. Лично – 5,9 п.л. ISBN 978-5-7501-1351-4.
 Обоснование профилактики рака слизистой полости рта, языка, губы / Буляков Р.Т., Ш.Х. Ганцев, Гуляева О.А. Издательский дом «LAMBERT», 2012. 120 с. 100 экз. 4 п.л. Лично – 1,3 п.л.
 Предпосылки и пути совершенствования онкологической помощи (на примере Республики Башкортостан) / Ганцев Ш.Х., Кудряшова Л.Н., Габитова Д.М. Уфа, ООО Медиа Группа «Здоровье», 2013. 118 с. 300 экз. 4,1 п.л. Лично – 1,2 п.л.
 Рак желудка / Ш.Х. Ганцев, М.Д. Тер-Ованесов, И.Р. Рахматуллина, Д.Т. Арыбжанов. Акад. наук Республики Башкортостан, Отделение мед. наук. Уфа: Издательство «Гилем», 2014. 304 с. 1000 экз. ISBN 978-5-88185-203-0.
 Рак молочной железы [руководство для врачей] / Ганцев Ш.Х., Рахматуллина И.Р. Галеев М.Г. и др.; под ред. Ш.Х. Ганцева. Москва, ГЭОТАР-Медиа, 2015. 119 с. 3000 экз. ISBN 978-5-9704-3293-8.

Статьи за 2011—2015 годы

 Спектрально-люминесцентное исследование кетоенольной таутомерии производных урацила и их комплексов с циклодекстринами. Часть 1. Комплексообразованиетаутомеров 5-фторурацила с β-циклодекстрином / М.В. Султанбаев, С.С. Остахов, С.Л. Хурсан, Ш.Х. Ганцев // Бутлеровские сообщения. - 2011. – № 5. – С. 101-104.
 Спектрально-люминесцентное исследование кетоенольной таутомерии производных урацила и их комплексов с циклодекстринами. Часть 2. Комплексообразованиетаутомеров 5-фторурацила с β-циклодекстрином / М.В. Султанбаев, С.С. Остахов, С.Л. Хурсан, Ш.Х. Ганцев // Бутлеровские сообщения. – 2011. – № 6. – С. 66-70.
 Коррекция нутритивного статуса с использованием жирных кислот омега-3 у больных распространёнными формами рака органов пищеварения / Ш.Х. Ганцев, Ф.Х. Камилов, Л.Н. Кудряшова [и др.] // Креативная хирургия и онкология. – 2011. – № 3. – С. 19-25.
 Аутоиммунитет и рак. Новые подходы к ранней диагностике злокачественного роста / М.М. Дамиров, И.Н. Тютерева, Ш.Х. Ганцев [и др.] // Креативная хирургия и онкология. – 2011. – № 3. – С. 89-93.
 Тромбоэмболия лёгочной артерии: частота, причины и пути профилактики в онкологии / Ганцев Ш.Х., Каримов А.И., Огий И.И., Хуснутдинов Ш.М., Ишмуратова Р.Ш., Маматова Г.У., Самышина Е.А., Кзыргалин Ш.Р. / Креативная хирургия и онкология. – 2011. –№ 4. – С. 16-21.
 Обоснование объёма мультиорганных операций при колоректальном раке / Ганцев Ш.Х., Хуснутдинов Ш.М., Парфёнов А.Ю. /Креативная хирургия и онкология. – 2011. – № 1. – С. 4-11.
 Эффективность эндоскопических методов гемостаза при кровотечении портального генеза у больных циррозом печени / Абдурахманов Б.А., Ганцев Ш.Х., Kулакеев O.K. / Анналы хирургической гепатологии. – 2011. – Т. 16. – № 3. – С. 65-71.
 Динамика изменения биохимического состава периферической лимфы при раке молочной железы / Ганцев Ш.Х., Султанбаев А.В., Ишмуратова Р.Ш., Фролова В.Ю., Кзыргалин Ш.Р. / Опухоли женской репродуктивной системы. – 2011. – № 4. – С. 37-42.
 Особенности проявления заболеваемости раком лёгкого среди мужского населения на территориях отличных по экологическим характеристикам / Кириллова Э.В., Ефимов Г.Е., Ганцев Ш.Х., Кайданек Т.В., Моисеенко Ю.И., Ручкин В.Н. / Медицинский альманах. – 2011. – № 5. – С. 99-104.
 Эмболизация селезёночной артерии в сочетании с миниинвазивными вмешательствами в лечении диуретикорезистентного асцита у больных циррозом печени / Абдурахманов Б.А., Ганцев Ш.Х., Кулакеев O.K. / Анналы хирургической гепатологии. – 2011. – Т. 16. – № 4. – С. 51-55.
 Способ профилактики метастазирования при диагностике и лечении меланомы кожи / Ганцев Ш.Х., Ишмуратова Р.Ш., Зайнуллин Ф.Ш., Фролова В.Ю. / Креативная хирургия и онкология. – 2011. – № 1. – С. 103.
 Анализ результатов стадирования рака молочной железы по критерию pNexvivo с использованием новых технологий / Ганцев Ш.Х., HorstmannR., Галеев М.Г., Ишмуратова Р.Ш., Фролова В.Ю., Хуснутдинов Ш.М., Турсуметов Д.С., Кзыргалин Ш.Р., Сулайманова Р.Т., Уразин Р.Р., Иванов Д.Е. / Креативная хирургия и онкология. – 2011. – № 3. – С. 4-9.
 Фоновые и предраковые заболевания шейки матки у нерожавших женщин, развившиеся после прерывания первой беременности медицинским абортом / Бадретдинова Ф.Ф., Ганцев Ш.Х., Трубин В.Б. / Здоровье семьи - XXI век. – 2012. – № 4. – С. 1.
 Возможности нового способа комбинированного лечения больных раком желудка / Ганцев Ш.Х., Арыбжанов Д.Т. / Медицинская наука и образование Урала. – 2012. – Т. 13. – № 2. – С. 93-96.
 Неолимфогенез и профиль экспрессии хемокинов при раке молочной железы / Ш.Х. Ганцев, А.Г. Пухов, Э.К. Хуснутдинова и др. // Креативная хирургия и онкология. – 2012. – № 1. – С. 4-9.
 Ингибирование клеточной инвазии и индуцирование аноикоза в клетках меланомы у мышей при помощи противовоспалительного препарата DTCM-глутаримида / А. Канеда, Ш.Х. Ганцев, К. Умезава // Креативная хирургия и онкология. – 2012. – № 3. – С. 4-9.
 Логистика лимфогенного метастазирования при раке молочной железы / Ганцев Ш.Х., Умезава К., Султанбаев А.В., Ишмуратова Р.Ш., Фролова В.Ю., Ахметов А.Т., Фазлыева Э.А., Кзыргалин Ш.Р. / Креативная хирургия и онкология. – 2012. – № 2. – С. 10.
 Вторичная профилактика рака шейки матки путём разработки и реализации системы оптимизации диагностических и лечебно-реабилитационных мероприятий при фоновых и предраковых заболеваниях шейки матки / Бадретдинова Ф.Ф., Ганцев Ш.Х., Трубин В.Б. / Опухоли женской репродуктивной системы. – 2012. № 3-4. – С. 133-139.
 Онкология: стратегия развития Ганцев Ш.Х. / Вестник Академии наук Республики Башкортостан. – 2012. – Т. 17. – № 3. – С. 24-27.
 Комбинация миниинвазивных технологий с превентивной реконструкцией гепатопортальной гемодинамики в лечении диуретикорезистентного асцита у больных циррозом печени/ Ганцев Ш.Х., Абдурахманов Б.А. / Паллиативная медицина и реабилитация. – 2013. – № 3. – С. 16-19.
 Применение комплексной системы лечебно - реабилитационных мероприятий у женщин с акушерскими травмами шейки матки при первых родах / Бадретдинова Ф.Ф., Ганцев Ш.Х., Трубин В.Б. / Уральский медицинский журнал. – 2013. – № 3 (108). – С. 101-105.
 Влияние реализованного перитуморального постнатального индуцированного неолимфангиогенеза на выживаемость при раке молочной железы / Ганцев Ш.Х., Кзыргалин Ш.Р., Ишмуратова Р.Ш., Турсуметов Д.С. / Онкология. Журнал им. П. А. Герцена. – 2014. – Т. 2. – № 5. – С. 16-20.
 Особенности липидного спектра сыворотки крови у работников предприятий химического комплекса / Ш.Х. Ганцев, Г.Г. Бадамшина, Г.В. Тимашева, Л.К. Каримова, А.Э. Бакирова // Общественное здоровье и здравоохранение. – 2014. – № 1. – С. 41-46.
 Обоснование и основные принципы мультидисциплинарного подхода в онкологии / Ганцев Ш.Х., Рахматуллина И.Р. / Практическая онкология. – 2015. – Т. 16. – № 2. – С. 39-43.

Изобретения за 2011—2015 годы

 Способ моделирования  цирроза печени с синдромом портальной гипертензии. Патент на изобретение № 2410762, зарегистрирован 27.01.2011 г. Соавторы: Абдурахманов Б.А., Арыбжанов Д.Т.
 Способ портокавального шунтирования при циррозе печени с синдромом портальной гипертензии. Патент на изобретение № 2410038, зарегистрирован 27.01.2011 г. Соавторы: Абдурахманов Б.А., Абдулова А.Р.
 Способ локальной химиотерапии  метастазов в печень. Патент на изобретение № 2411018, зарегистрирован 10.02.2011 г. Соавторы: Ишмуратова Р.Ш., Ганцев К.Ш., Лиходед В.А., Аюпов Р.Т., Сулейманов Н.М. и др.
 Способ реабилитации больных раком молочной железы (варианты). Патент на изобретение № 2413526, зарегистрирован 10.03.2011 г. Соавторы: Ганцева Н.Р., Кудашкина Н.В., Рахматуллина И.Р.
 Способ моделирования неолимфогенеза в эксперименте. Патент на изобретение № 2422914, зарегистрирован 27.06.2011 г.
 Способ местного пролонгированного химиотерапевтического лечения местнораспространённого нерезектабельного железистого рака органов малого таза. Патент на изобретение № 2437660, зарегистрирован 27.12.2011 г. Соавторы: Хамитова Г.В., Аюпов Р.Т., Ишмуратова Р.Ш. и др.
 Инъекционный растворитель пролонгированного действия для приготовления средств, применяемых при лечении гинекологических заболеваний в области онкологии. Патент на изобретение № 2438653, зарегистрирован 10.01.2012 г. Соавторы: Шикова Ю.В., Лиходед В.А., Хамитова Г.В. и др.
 Средство для лечения онкологических заболеваний женской половой сферы с 5-фторурацилом и метронидазолом. Патент на изобретение № 2445097, зарегистрирован 20.03.2012 г. Соавторы: Шикова Ю.В., Лиходед В.А., Ишмуратова Р.Ш., Хамитова Г.В. и др.
 Способ местного пролонгированного химиотерапевтического лечения местнораспространённого нерезектабельного железистого рака органов пищеварения. Патент на изобретение № 2460530, зарегистрирован 10.09.2012 г. Хамитова Г.В., Аюпов Р.Т., Ишмуратова Р.Ш. и др.
 Способ определения радикальности операции при раке кожи. Патент на изобретение № 2465587, зарегистрирован 27.10.2012 г. Соавторы: Ишмуратова Р.Ш.,Султанбаев А.В., Турсуметов Д.В., Уразин Р.Р.
 Биоматериал и средство с биоматериалом, стимулирующее противоопухолевую активность. Патент на изобретение № 2526160, зарегистрирован 25.06.2013 г., публикация патента: 20.08.2014 г. Авторы Ганцев Ш.Х., Шикова Ю.В., Амиров Р.А., Кзыргалин Ш.Р.

Признание
 2008: Орден Почёта — за достигнутые трудовые успехи и многолетнюю добросовестную работу;
 2002: Заслуженный деятель науки Российской Федерации — за заслуги в научной деятельности;
 1995: Заслуженный деятель науки Республики Башкортостан — за заслуги в области медицинской науки;
 2009: Государственная премия Республики Башкортостан в области науки и техники — за работу «Научно-технические основы информатизации высшего профессионального (медицинского) образования в Республике Башкортостан»;
 2009: член-корреспондент Академии наук Республики Башкортостан (по Отделению медицинских наук);
 2009: член-корреспондент Российской академии естествознания;
 2008: Телевизионная общественная премия «Герой нашего времени» (учреждена совместно телеканалом «Вся Уфа» и Администрацией г. Уфы) в номинации «Доброе дело».

Профессор Ш. Х. Ганцев награждён орденом РАЕ «Labore et Scientia» («Трудом и Знанием»), медалями «Профессионал России», «За заслуги в развитии медицины и здравоохранения», «За мужество и гуманизм», дипломом Российского фонда паллиативной помощи «За создание научной школы».

Общественная деятельность
 1992—2012: президент Ассоциации онкологов Республики Башкортостан;
 с 2012: председатель Общества онкологов Республики Башкортостан;
 с 2007: учредитель благотворительного Противоракового Фонда;
 с 2011: президент Медицинской Лиги Республики Башкортостан;
 с 2012: лидер и соинициатор проекта Профессионального сообщества практик «Превентивная медицина»;
 с 2013: член Общественной палаты Республики Башкортостан, с 2015 — заместитель председателя ОП РБ;
 с 2014-2017: член Общественной палаты Российской Федерации. Член Комиссии по развитию науки и образования ОП РФ.

Председатель Общественного научно-технического совета Технопарка «Сколково». Член Общественного совета Приволжского федерального округа по развитию институтов гражданского общества. В июне 2013 года в Москве Ш. Х. Ганцев участвовал в учредительном съезде Общероссийского общественного движения «Народный фронт «За Россию» (ОНФ) в качестве делегата от Республики Башкортостан.

Семья, досуг

Шамиль Ханафиевич и его супруга Резеда Наилевна воспитали двоих детей, которые, достойно продолжив семейные врачебные традиции, достигли значительных успехов в профессиональной деятельности. Сын, Камиль Шамилевич Ганцев (род. 1975), — доктор медицинских наук, врач-онколог. Дочь, Рената Шамилевна Ишмуратова, — кандидат медицинских наук, врач-онколог. Старший научный сотрудник Центральной научно-исследовательской лаборатории БГМУ. У Шамиля Ханафиевича шесть внуков: Ришат, Искандер, Аделия, Алсу, Габделкарим, Тимур.

Шамиль Ханафиевич долгое время увлекается коллекционированием предметов, связанных с историей и культурой. С детства он собирал марки, а ещё с первого класса любил фотографировать. Сегодня у Ш. Х. Ганцева несколько больших коллекций: фотоаппаратов, часов (в их числе, например, и огромный хронометр матроса, штурмовавшего Зимний дворец), несколько сотен колокольчиков — из фарфора, металла, стекла, дерева. Есть и коллекция современной спортивной атрибутики, включающая футбольные мячи с крупных чемпионатов.

Литература
 Башкортостан. Краткая энциклопедия / Главный редактор Р. З. Шакуров. — Уфа, Башкирская энциклопедия, 1996. — 672 с. — ISBN 5-88185-001-7;
 Башкирская энциклопедия (в 7 т.) / Главный редактор М. А. Ильгамов. — Т. 2: В—Ж. — Уфа, Научное издательство «Башкирская энциклопедия», 2006. — 623 с. — ISBN 5-88185-062-9. — 7000 экз.;
 Очерки истории кафедры госпитальной хирургии (к 70-летию организации кафедры) / Н. Г. Гатауллин. — Уфа, 2007. — Публикация на сайте Ассоциации хирургов Республики Башкортостан.

Примечания

Ссылки
 Ганцев Шамиль Ханафиевич на официальном сайте Общественной палаты Российской Федерации;
 Ганцев Шамиль Ханафиевич на сайте Башкирской энциклопедии;
 Ганцев Шамиль Ханафиевич на сайте «Кто есть кто в Республике Башкортостан»;
 Ганцев Шамиль Ханяфиевич на официальном сайте Академии наук Республики Башкортостан;
 Ксения Лаптева. Профессор Ганцев: «Когда я вижу объявления "Лечу рак", чуть не плачу». Интервью на сайте МКС (Медиакорсеть), 24.05.2009;
 Известный онколог из Башкирии Шамиль Ганцев: «Следующим поколениям будет легче бороться с раком». Интервью на сайте газеты «Комсомольская правда», 18 марта 2013;
 Биктимир Абдрашитов. Шамиль Ганцев: «Врачей на работу нужно брать по конкурсу». Интервью на сайте proufu.ru, 04.07.2013;
 В Уфе директор НИИ онкологии БГМУ Шамиль Ганцев предложил принимать врачей на работу по конкурсу. Интервью на сайте РИА «Башкирия», 19 февраля 2014. Видео;
 Шамиль Ганцев. Интервью ИА «Башинформ», 26 декабря 2014 г. Видео;
 Большая страна. Профессор Ш. Х. Ганцев. Интервью телекомпании ОТР, 2 февраля 2015 г. Видео;
 Вести. Интервью - Шамиль Ганцев, завкафедрой онкологии БГМУ, член Общественной палаты России. Телеканал «Россия-24» – «Башкортостан», 22 сентября 2015. Видео.

Выпускники Башкирского государственного медицинского университета
Преподаватели Башкирского государственного медицинского университета
Хирурги СССР
Онкологи СССР
Изобретатели СССР
Онкологи России
Изобретатели России
Академики Академии наук Республики Башкортостан


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text:
Q: Вернуть экземпляр анонимного класса Допустим, есть метод, который должен возвращать экземпляр анонимного класса. Делаю всё, как в этой статье, но при запуске выкидывает следующее:
    Exception in thread "main" iterator item 1
java.lang.IllegalArgumentException: wrong number of arguments
    at sun.reflect.NativeConstructorAccessorImpl.newInstance0(Native Method)
    at sun.reflect.NativeConstructorAccessorImpl.newInstance(NativeConstructorAccessorImpl.java:62)
    at sun.reflect.DelegatingConstructorAccessorImpl.newInstance(DelegatingConstructorAccessorImpl.java:45)
    at java.lang.reflect.Constructor.newInstance(Constructor.java:423)
    at com.javarush.task.task24.task2410.Solution$1.<init>(Solution.java:24)
    at com.javarush.task.task24.task2410.Solution.getIterator(Solution.java:16)
    at com.javarush.task.task24.task2410.Solution.main(Solution.java:36)

Process finished with exit code 1

Вот код:
        public Iterator getIterator(final String name) throws Exception {
            return new Iterator() {
                Constructor c = (Constructor) (this.getClass().getDeclaredConstructors())[0];
                Object[] params = new Object[1];
                {
                    countItems++;
                    System.out.println(name + " item " + countItems);
                    params[0] = this;
                }
                Iterator it = (Iterator) c.newInstance(params);

                @Override
                public Iterator next() {
                    return it;
                }
            };
        }

        public interface Iterator {
            Iterator next();
        }

Отмечу, что задачу нужно решить именно с помощью анонимного класса.
Код для тестирования:
public static List<Iterator> iterators = new LinkedList<>();

public static void main(String[] args) throws Exception {
        Solution solution = new Solution();

        Iterator iterator = solution.getIterator("iterator");
        for (int i = 1; i < 5; i++) {
            iterators.add(iterator.next());
        }
    }

A: Ошибка говорит о том, что при создании экземпляра класса, в конструктор передано неверное кол-во аргументов, пример кода для создания экземпляра:
                Constructor c = (Constructor) (this.getClass().getDeclaredConstructors())[0];
                // массив типов параметров конструктора
                Class[] parameters = c.getParameterTypes();
                Object[] params = new Object[parameters.length];

                // заполняем массив параметров для конструктора
                for(int i = 0; i < parameters.length; i++){
                    params[i] = parameters[i].newInstance();
                }

                it = (Iterator) c.newInstance(params);

redpajama_set_name: RedPajamaStackExchange


A lesbian couple expressed outrage over a Tennessee church's refusal to violate doctrine and recognize them as core members because of their homosexual marriage.
Jessica and Courtney Wright stopped attending Faith Promise church after church leadership informed them that they were not eligible to be core members because their marriage violates the church belief that marriage is between one man and one woman, according to WATE. The couple attended the church for two years.
The couple and their daughter moved forward with the initial requirements for core membership, including being baptized, before leadership told them their marriage precluded them from being members.
"Our marriage doesn't agree with their core beliefs. That's the reason why we wouldn't be allowed to move forward and be in leading roles," Courtney told WATE.
"We could attend, be a seat, give money and be attendance numbers and that was it," Jessica added.
"They are saying they still love us, they still want us to come. And then in the same breath, saying you can't be a part of church, though," Courtney said.
The church, however, said that Courtney and Jessica are more than welcome to be a part of the church community. The couple can attend the church but cannot become core members since they do not strive to live in accordance with the church's doctrine.
Jessica and Courtney said, however, that they were at a loss as to why church leadership would wait to tell them that they could not be core members until after they had already gone through most of the steps for membership and were about to sign the papers.
As for the legality of the church's decision, Akram Faizer, a law professor at Lincoln Memorial Univeristy, told WATE that the church was well within its rights in light of "freedom of religion and freedom of association" and the fact that sexual orientation is not a protected class.
The couple is currently seeking church membership elsewhere.


I created the theme for this Drupal site using a zen subtheme. I performed minor content updates, and Drupal module and security upgrades. This project was developed while I was employed by Urban Insight. I served as a project manager and lead developer for this project.


text:
Kanada entsandte zu den Paralympischen Sommerspielen 2012 in London (29. August bis 9. September) eine aus 145 Sportlern bestehende Mannschaft. Insgesamt gewann Kanada 31 Medaillen und fand sich auf Platz 12 des Medaillenspiegels wieder. Damit war es die am wenigsten erfolgreiche Teilnahme Kanadas seit den Sommer-Paralympics 1972.

Medaillengewinner

Gold

Silber

Bronze

Teilnehmer nach Sportart

Bogenschießen

Boccia
Einzel

Team

Goalball

Frauen
 Ashlie Andrews
 Whitney Bogart
 Amy Kneebone
 Jill MacSween
 Nancy Morin
 Cassie Orgeles

Ergebnisse:

Männer
 Mario Caron
 Brendan Gaulin
 Bruno Hache
 Doug Ripley
 Simon Tremblay
 Ahmad Zeividavi

Ergebnisse

Judo

Leichtathletik

Radsport

Bahn

Straße

Rollstuhlbasketball

Rollstuhlfechten

Rollstuhlrugby

Rollstuhltennis

Rudern

Schießen

Schwimmen

Segeln

Einzelnachweise

Kanada
Paralympics (Kanada)

redpajama_set_name: RedPajamaWikipedia


text:
Vibrant Community of Prairie Trail
The Sterling North development is located in Prairie Trail; a planned urban development based on the principles of New Urbanism community design and built on the tradition of Iowa's great neighborhoods.
It's located on 1,031 acres in the center of Ankeny, IA. There are more than 200 acres of parks and open spaces devoting nearly 20 percent of the 1,031 acres to public use. Residents at the Sterling North at Prairie Trail will be able to enjoy all that the Prairie Trail community has to offer.
Barriers to Entry in Prairie Trail
We own exclusive rights to develop the remaining high density multifamily within Prairie Trail, effectively controlling new supply competition. Because of this, there is limited construction of high-end, luxury apartments in the area, creating limited supply where there is demand, especially as young professionals continue to flock to the area.
Close Proximity to Some of the Biggest Employment Drivers in the Area
The Sterling North at Prairie Trail offers close proximity to some of the biggest employment drivers in the Greater Des Moines area, including the adjacent John Deere manufacturing plant (1,900 employees), Des Moines Area Community College (24,000 annual enrollment), national headquarters for Casey's General Stores and a Sysco Food Services of Iowa distribution center.
Walking Distance to The District and Plaza Shoppes
Walkable amenities are incredibly important to every demographic when deciding where to live. Residents want to be able to walk to restaurants, bars, entertainment venues, retail stores, gyms, etc. The District at Prairie Trail and the Plaza Shoppes offer these amenities to Sterling North residents, while enhancing the vibrant central Iowa community. Despite Covid-19's impact on retail across the U.S., The District has continued to thrive during the past 12 months. In fact, several prominent retailers including Lululemon Athletica, Jersey Mike's Subs, and Legacy Fitness have recently opened new locations at the center.
Prairie Trail Master Plan
The District at Prairie Trail

redpajama_set_name: RedPajamaCommonCrawl


We are proud to be an industry leader, and humbled by our clients trust. For everything from buying, renting, or selling your home, we will strive to make the process as seamless and effortless as it can be. We are here to make finding your next home a breeze. Our competitive advantages help home buyers and sellers across Southern Indiana and Louisville.
One of Southern Indiana's Top Producing team leaders, with sales volume over $100,000,000.00 in just the last few years and he continues to grow in volume and transactions every year. Jeremy prides himself on his personal service and attention to his clients every detail. With a decade of real estate experience, including luxury residential, single family dwelling, commercial, and investment properties he has become the local real estate expert. This vast understanding allows Jeremy to confidently handle complex transactions making him your residential home and investment property authority. Specializing in new construction builds, to high end subdivisions and gated communities, covering the southern Indiana region, Jeremy's knowledge of our community, understanding of his clients' needs, and proven marketing strategies have catapulted him to RE/MAX of Indiana's Sagamoore Club and Southern Indiana's top 5% of agents regionally.
Our TeamBecause who you work with matters.
The Jeremy Ward Team represents the region's finest properties with exceptional skill using the most innovative technologies currently available. Their years of full-time experience have given them a clear understanding of the mindset of home buyers and sellers and a thorough understanding of the regional marketplace. Expect nothing less than the best.
Agents bring objectivity to the table. They help sellers see past their emotional connection to their home and helps buyers deal with a multiple bid situation.
Our agents recommend good independent home inspectors, help you evaluate the suggestions and have connections to excellent contractors.
Determining the price of your home is difficult. With their experience in your market area, most real estate agents can set the price of a home very quickly.
Agents know all the mountain of paperwork nuances. Plus, they keep complete copies of all your documents for years to come!
Our agents are familiar with local zoning ordinances and codes and will make sure to find out if you can add on a new bedroom or put up a privacy fence.
Problems with the title or financing or timing are all things the agent knows to watch for and take steps to avoid a problem in the final hours of the sale.
My husband and I worked with Christina McKim. She was AWESOME. She helped us to find the perfect home. She let us take our time and showed us many homes. Great team.
From the first time I called Jeremy's team, I was treated in a friendly and professional manner. Our realtor Lewis, got back with me asap and continued to show the same level of reliability and speed throughout our house hunting. I gave this team 5 stars because they understand that SPEED = TRUST. Not one time did I have a question go unanswered or a phone call/text/email not returned. I would highly recommend and use again in the future.


text:
Frac Sand Newsletter
Producer News
Frac Sand Conference
Estimates of Hydraulic Fracturing (Frac) Sand Production, Consumption, and Reserves in the United States
Published: Tuesday, 26 May 2015 16:59
By Don Bleiwas, Physical Scientist, U.S. Geological Survey
An aerial view of a frac sand operation in Chippewa County, Wis., circa 2012 (Photograph provided courtesy of Jim Tittle at www.thepriceofsand.com)
The practice of fracturing reservoir rock in the United States as a method to increase the flow of oil and gas from wells has a relatively long history and can be traced back to 1858 in Fredonia, New York, when a gas well situated in shale of the Marcellus Formation was successfully fractured using black powder as a blasting agent. Nearly all domestic hydraulic fracturing, often referred to as hydrofracking or fracking, is a process where fluids are injected under high pressure through perforations in the horizontal portion of a well casing in order to generate fractures in reservoir rock with low permeability ("tight"). Because the fractures are in contact with the well bore they can serve as pathways for the recovery of gas and oil. To prevent the fractures generated by the fracking process from closing or becoming obstructed with debris, material termed "proppant," most commonly high-silica sand, is injected along with water-rich fluids to maintain or "prop" open the fractures. The first commercial application of fracking in the oil and gas industry took place in Oklahoma and Texas during the 1940s. In 1949, over 300 wells, mostly vertical, were fracked (ALL Consulting, LLC, 2012; McGee, 2012; Veil, 2012) and used silica sand as a proppant (Fracline, 2011). The resulting increase in well productivity demonstrated the significant potential that fracking might have for the oil and gas industry.
The first horizontal well was successfully completed in 1948, and the first commercial "unconventional well," a horizontal gas well in "tight" shale, was drilled in 1988. The Society of Petroleum Engineers describes unconventional resources as petroleum accumulations that are pervasive throughout a large area and are not significantly affected by pressure generated by water. The extremely small pore-size and absence of favorable permeability results in high resistance to hydrocarbon flow. Recovery of gas and oil from these units presents technological challenges. The extremely low permeability typically causes the hydrocarbons to remain in the source rock unless artificially induced fracturing is introduced and proppants are injected to maintain the fracture openings and to provide a pathway through the rock to facilitate the flow of hydrocarbons through the well (Ratner and Tiemann, 2014).
Figure 1. An illustration of a sedimentary cross-section that contains the Marcellus Shale in the Northeastern part of the United States. It depicts two examples of oil and gas wells developed with hydraulic fracturing in a pay zone and the advantage of horizontal drilling. The vertical portion of wells are drilled to depths that generally range from approximately 3,000 to 8,000 ft. (914 to 2,438 m) and the horizontal portion of holes generally range from 3,000 to 10,000 ft. (914 to 3,048 m) in length, but can be longer (Illustration not drawn to scale). [Vertical drill single-stage hole (A) with a relatively short pay zone (B); and A segment of horizontal multi-stage (5 stages shown) drill hole (C) showing a comparatively long pay zone (D).] Fractures induced by the high-pressure fracking process in each stage are propped open with proppants and provide pathways for the movement of oil and gas up the well. Image is modified from a figure provided as a courtesy of the Pennsylvania Independent Oil and Gas Association, 2014.
In 1995, the first horizontally drilled and hydraulically fractured well in shale was completed (Martin, 2012; Williams, 2013). As illustrated in Figure 1, the advent of horizontal drilling combined with fracking permitted the greater recovery of oil and or gas from a pay zone by a single well over an extended area than that of a comparatively narrow intercept encountered in a vertical hole.
Technological advances in directional drilling and hydraulic fracturing coupled with increases in natural gas prices in the late 1990s and early 2000s spurred aggressive exploration drilling activities and eventually significant production from unconventional oil and gas reservoirs contained in several major sedimentary shale basins in the United States [U.S. Energy Information Administration (EIA), 2014]. Formations or basins, shown in Figure 2, include the Anadarko Basin in Oklahoma and Texas, the Bakken/Three Forks Basin in eastern Montana and North Dakota, the Barnett Formation in the Fort Worth Basin, the Eagle Ford and Woodbine Formations in the East Texas Basin, and the Appalachia Basin in the northeastern part of the United States (see Figure 2). Most of the production from these formations is in the form of gas rather than oil because methane molecules and those of natural gas liquids are smaller than crude oil molecules and are therefore more responsive to fracking when moving through fine-grained sedimentary rock such as shale (Ratner and Tiemann, 2014; Tucker, 2013).
Figure 2. Generalized flow map of the major oil and gas plays located in unconventional reservoirs that consume frac sand and the approximate locations of major sources that supply frac sand in the conterminous United States. Million metric tons consumed shown in parentheses. The Woodbine Formation also includes the Eagle Ford Formation in the East Texas Basin. Estimates are for the last three quarters of 2013 and 1st quarter of 2014. Solid, single-dot dashed, double-dot dashed, and dotted lines indicate directions of supply flow. Estimates and flows are subject to revision. Base map and consumption data provided courtesy of PacWest, 2014.
As shown in Figure 3, daily U.S. gas and oil production from unconventional sources in 1980 amounted to about 1.1 million barrels of oil equivalent (MMBOE) per day. This was about 6 percent of the country's daily MMBOE production. By 2010, the percentage of oil and gas from unconventional reservoirs increased to about 8 MMBOE per day, or nearly 46 percent of daily oil and gas production [International Energy Agency (IEA, 2012; 2012a)]. Much of the increase can be attributed to horizontal drilling accompanied by fracking. In 2013, oil produced from unconventional shale deposits represented 2.3 million barrels per day or 35 percent of domestic crude oil production (EIA, 2013; 2014; 2014a). The EIA reported that natural gas production from shales in the United States represented 10.4 trillion cubic feet (Tcf) [292 billion cubic meters (Bcm)] or 41 percent of total U.S. reported production of about 25.3 Tcf (716 Bcm) and an additional 5 TCF (142 Bcm) recovered from low porosity-permeability deposits (tight gas) (EIA, 2014). In 2012, up to 95 percent of wells drilled in the United States were hydraulically fractured and more than 43 percent of the country's oil and 67 percent of natural gas production originated from wells that had been fracked (ALL Consulting, 2012). By 2015, it is anticipated that oil and gas recovered from unconventional deposits will approach 60 percent of total domestic production (IEA, 2012; 2012a).
Figure 3. Trends of estimated daily oil and gas production [expressed as million barrels of oil equivalent per day (MMBOE)] from domestic conventional and unconventional reservoirs from 1980 to projected daily production by 2015. 1P = Projected. Modified from International Energy Agency, 2012.
Frac Sand as a Proppant
Frac sand, composed of about 95 to 99 percent silica as quartz, has been consumed as the major proppant for over 1 million hydraulically-fractured wells over the last 60 years in the United States (API, 2014). Frac sand has the highest consumption tonnage and total combined value of all natural and manufactured proppants consumed in the petroleum industry because of its relatively low unit cost, ready availability, and overall performance. It is recognized as an essential material for tapping the Nation's unconventional oil and gas deposits. The use of the three major types of proppants sand, resin-coated sand (RCS), and ceramic alone or in combination, is based primarily on their cost (including shipping) and performance to maximize conductivity (flow-rate). The most important physical and chemical characteristics of a proppant to maintain conductivity are their abilities to withstand; (1) lithostatic pressure; (2), temperature; and (3) resistance to solutions.General characteristics of the three major types of proppants are shown in Figure 4. The specifications for frac sand are based on the standards determined by the American Petroleum Institute (API) and the International Organization for Standards (Zdunczyk, 2014).
Figure 4. Generalized comparison of physical characteristics differentiating the three major types of proppants used for fracking. In general, proppant cost increases toward the top of the triangle. Segments that contain the types of proppants presented are illustrative and do not reflect the relative proportions of proppant consumption or other characteristics of the materials.
Based on statistics published by the U.S. Geological Survey (USGS) for the years 1990 through 2012, a total of approximately 654 million metric tons (Mt) of industrial silica sand valued at 20.3 billion U.S. dollars, adjusted to average 2013 dollars (avg. 2013$) free on board (FOB) plant, were sold and used in the United States (U.S. Geological Survey, 1991-2014). Of this amount, about 119 Mt, or 18 percent of that tonnage was used as proppant in hydraulically-fractured gas and oil wells with an estimated total value of about 6.6 billion dollars [avg. 2013$] or about 33 percent of the total industrial sand value (U.S. Geological Survey, 1991-2014).
Figure 5 is a time series chart that shows (1) the metric tons of silica sand proppant sold or used for each of the years during the period 1990 through 2012 (the most recent year for which statistical data is available) as reported by the USGS; (2) annual FOB plant values of frac sand termed "sold or used," (because some are inventories and stockpiles), for each of the years during the period 1990 through 2012, as reported by the USGS, expressed in average 2013 dollars and; (3) the average number of active horizontal drilling rigs per week per year, as reported by Baker Hughes Inc. for the period 1991 (the first year that statistical data were available) through 2012 (Baker Hughes Inc., 2014). Frac sand values are FOB plant and do not account for the value added to some sands that are processed further on site, specifically RCS. From 1990 to 2002, the demand for sand as a proppant was relatively level averaging about 1.5 Mt per year or about 6 percent of the approximately 25 Mt of industrial sand sold or used annually during the period. The average price per ton of frac sand during this period was about $50 per ton FOB plant in average 2013 dollars. From 1990 to 2002, the number of onshore horizontal drilling rigs operating on a weekly basis in the United States averaged about 60 units or 7 percent of active onshore wells. Vertical and directional drilling rigs dominated U.S. onshore drilling activity over the time period with about a 73 and 20 percent share, respectively (Baker-Hughes, 2014).
Figure 5. Average weekly horizontal drill rig count per year, frac sand sales, and free on board (FOB) mine values (Baker-Hughes, 2014; U.S. Geological Survey, 1991-2014).
In 2003, nearly 2.2 Mt of sand was sold or used for fracking, a 45 percent increase over the previous year. The rapid growth in the demand for frac sand at this time was a direct result of the petroleum industry's start of aggressive horizontal drilling and hydraulic fracturing programs in unconventional oil and gas targets contained in tight sedimentary formations. In 2009, the global recession and lower petroleum prices were reflected by a decrease in the number of active drilling rigs and a slowdown in the growth rate of frac sand consumption. By 2012, oil petroleum prices had recovered and the rate of growth in frac sand demand accelerated. In 2012, there was an average of approximately 1,150 horizontal rotary drilling rigs in the United States operating per week, which represented nearly 60 percent of the total number of active drilling rigs. At the same time, the number of vertical and directional (angled or deviated drilling, but not horizontal) active drilling rigs represented a 29 percent and 11 percent share, respectively (Baker Hughes Inc., 2014). The compound annual growth rate (CAGR) for frac sand sold or used for the years 2003 through 2012 was nearly 32 percent.
The USGS reported, based on voluntary respondents to a survey (a Congressionally approved method of data collection performed by the USGS), that approximately 31.1 Mt of silica sand was sold or used as proppant in 2012. Frac sand represented nearly 62 percent share of the industrial silica sand sold or used in the United States with an estimated value of nearly 2 billion dollars (avg. 2013) FOB plant. By 2012, the average price had risen to about $64 per ton FOB plant (U.S. Geological Survey, 1991-2014). In 2014, proppant sales FOB mine and factory in United States of sand, ceramic, and RCS proppants were anticipated to be about 4 billion dollars, an increase of about 20 percent over 2013. In 2014, frac sand was expected to represent an estimated 65 percent share of this amount with ceramics and RCS representing about roughly 20 and 15 percent, respectively (PacWest, 2014b). Estimates vary, but shares by weight in the 2011 to 2013 period represented approximately 80-90 percent for frac sand, with the balance split roughly equal between RCS and ceramics (Fielden, 2013; Hi Crush Partners LP, 2013; Hughes, 2013; Mawet and others, 2012; PacWest, 2014b; U.S. Geological Survey, 1991-2014; Thomas Curan, Analyst, FBR Capital Markets and Company, NY, NY, oral commun., August 12, 2014). Nearly 71 percent of the total tonnage of frac sand sold and used over the period 2003-2012 reported by the USGS occurred during the period 2008-12 and was valued at 4.7 billion dollars (2013avg$) FOB and reflects the U.S. petroleum industry's rapid increase in drilling in unconventional oil and gas targets in tight formations which required frac sand as a proppant (U.S. Geological Survey, 1991-2014).
U.S. Production of Frac Sand
Frac sand production data are published in the U.S. Geological Survey Minerals Yearbook as regionally aggregated statistics. Published statistical data on frac sand production by State are limited. Reasons for this include: (1) some companies do not respond to USGS data collection questionnaires; (2) some companies consider production data confidential and the USGS is prohibited from publishing this type of data; (3) companies may report aggregated statistics for multiple frac sand operations in different states; (4) or combined sand production of which frac sand is a component; or (5) state government and local agencies do not collect data pertaining to frac sand production. The most recent published data, based on estimated regional U.S. production is available for 2012 by the USGS (U.S. Geological Survey, 1991-2014). However, discussions with local and State agencies; and industry representatives resulted in preliminary estimates of 2014 frac sand production among States with production of one Mt per year or greater. Based on preliminary estimates, which are subject to revision, approximately 54 Mt of frac sand will be produced in 2014 among the states listed in Table 1. An unknown, but relatively small portion of this production may have also been used to produce RCS. There are also states that produce relatively small amounts of frac sand, such as Ohio, with a reported 2012 production of nearly 65,000 metric tons (t) (Wolfe, 2013). Preliminary data suggest that frac sand production in 2014 will increase substantially over that reported in 2012 because of increased drilling activity and higher demand for frac sand. Demand for frac sand in 2014 will also be greater than that of 2013, but probably at a slower growth rate than the previous several years because of lower energy prices. Nearly 70 percent of the estimated 2014 domestic frac sand, or about 38 Mt, was mined in the Great Lakes Region owing to the premium sand deposits in the region; existing railway infrastructure, and long term presence in the industry (see Table 1). The states that comprise this region and their respective estimated annual production, rounded to the nearest Mt listed in descending order are Wisconsin (24 Mt), Illinois (8 Mt), Minnesota (5 Mt), and Michigan (1 Mt). Deriving an estimate for frac sand production in Wisconsin was more difficult than some other States owing to the large number of permits granted for mining over the last several years, but with fewer operations actually developed and producing than permitted. This resulted in a wide range of production estimates.
State Preliminary frac sand production estimates for 2014 (rounded to nearest 106 metric tons)*
Percentage share of estimated U.S. frac sand production
(rounded to nearest whole percent)**
Wisconsin 24 44
Illinois 8 15
Texas 8 15
Minnesota 5 9
Arkansas 2 4
Iowa 2 4
Nebraska 2 4
Arizona 1 2
Michigan 1 2
Missouri 1 2
Total 54 101
Table 1. Preliminary estimate of 2014 frac sand production by states determined to produce more than 1 million metric tons (Mt) per year. An unknown, but relatively small, percentage of production may be used for the manufacture of RCS. *Preliminary estimates and subject to revision. **Percentages exceed 100 because of independent rounding.
Common names of the frac sands, which are mined from the Ordovician Saint Peter Sandstone, include Jordan Sand, Ottawa Sand, Northern White Sand, Saint Peter; and Sierra Gold. In addition, these sands are also used in glass making and in foundries. Figures 6a and 6b are photographs of a vertically integrated frac-sand facility in the Great Lakes Region and a sample of the Region's premium quality frac sand.
Figures 6a (top) and 6b (bottom). Figure 6a is an aerial photograph of a vertically integrated frac sand facility near Maiden Rock, Wis., circa 2012. Some frac sand facilities (including this one, since the photograph was taken) have constructed covered storage facilities to protect stockpiled sands from the effects of weather. Train cars have a capacity of about 100 short tons, which form unit trains that may exceed 100 rail cars. (Photograph provided courtesy of Jim Tittle at www.thepriceofsand.com). Figure 6b is an image of high-quality frac sand mined and processed in Minnesota. Note the uniform size and spherical shape of grains, lack of fines and nearly pure quartz-grain mineralogy. (Photograph provided courtesy of Minnesota Environmental Quality Board, 2014.)
Iowa and Missouri produce approximately 2 million metric tons per year (Mt/yr) and 1 Mt/yr of frac sand, respectively. These sands are similar in character to the frac sands produced in the Great Lakes Region. Nearly all of the premium sands are transported by rail to transfer points in areas where fracking is occurring and trucked to fracking sites or stockpiled at locations to await orders for frac sand (see Figure 2). Some Great Lakes frac sand is also shipped to Canadian fracking sites since Canada produces only about 30 percent of its frac sand requirements (Seeking Alpha, 2014). In 2014, Canada imported about 1.5 Mt of sand from the United States. Most of the remaining frac sand production in the United States, approximately 13 Mt rounded to the nearest Mt, originates from outside the Great Lakes Region. In descending order of production they are: Texas (8 Mt), Arkansas (2 Mt), Nebraska (2 Mt) and Arizona (1 Mt). A large percentage of the sand produced from the mines in these states is considered "brown sand" and sold as Brady, Brown, EF (economical frac), Hickory, and Texas Brown. These sands may contain minor amounts of impurities, have lower strength and sphericity, and have other properties that may contribute to lower conductivity and value than the "white sands" of the Great Lakes Region (Levson and others, 2012; Texas Frac Sands, 2014). Frac sands produced from these areas are also shipped to numerous states as they are suitable for use in some basins with relatively shallow wells. The production from these mines is considered very important to consumers of frac sand at oil and gas plays located in relatively close proximity to the frac sand mines because of comparatively low transportation rates as shown in Figure 2 and Table 2. The top three frac sand consuming units or basins in the United States and the amount used are, in descending order of estimated consumption, the Eagle Ford and Woodbine Formations in the East Texas Basin (9.5 Mt), Appalachia (6.8 Mt) and the Permian (5.3 Mt).
Regional Frac Sand Consumption in Major U.S. Unconventional Oil and Gas Plays
In 2013, untreated frac sand was used exclusively in almost 75 percent of horizontal wells, and comprised 90 to 95 percent of the total tonnage of proppant used in wells fracked in the United States. As shown in the map on Figure 2 and Table 2, during the last three quarters of 2013 through the first quarter of 2014, a total of about 31 Mt of frac sand, about 66 percent of estimated 2013 U.S. frac sand production, was consumed in the identified plays. These areas represent the basins where much of the exploration for and production from unconventional oil and gas reservoirs in shales occurs. Frac sand was also used in horizontal drill holes in other basins and some vertical holes in areas not shown on the map. Additional tonnages are: used for well development in other areas of the United States and shipped to Canada; in transit; and maintained in inventory and stocks at plant facilities and distribution sites (Rock Products, 2014a). Frac sand stockpiles at mining facilities and storage sites in proximity to fracking activities may exceed 100,000 t (Sierra Frac Sands, LLC, 2014). In 2014, roughly 3-4 Mt will be exported, primarily to Canada (Claim Post Resources, 2013; PacWest, 2014b).
Major producing and active exploration and development plays for unconventional oil and gas State(s) or region with activity Million tons of frac sand consumed (rounded to two significant figures)* Percentage share of total frac sand consumed among selected basins* Estimated share of frac sand to total proppants consumed in play (percent)*
Eagle Ford-Woodbine (East Texas Basin) Texas 9.5 30 95
Appalachia (includes Marcellus and Utica shales) Northeastern U.S. 6.8 22 100
Permian New Mexico, Texas
Bakken Montana, North Dakota 2.2 7.0 69
Anadarko Kansas, Oklahoma, Texas 2.1 6.6 91
Denver-Julesburg Colorado, Kansas and Nebraska, Wyoming, and South Dakota 1.3 4.2 98
Haynesville-Brown Dense Arkansas, Texas 1.3 4.1 93
Barnett Texas 0.90 2.9 99
Fayetteville Arkansas 0.45 1.5 100
Uinta Utah 0.32 1.0 89
Piceance Colorado 0.26 0.84 96
Other Various 0.83 2.7 91
Total -- 31 99.8**
Table 2. Major unconventional oil and gas plays in the United States and estimated metric tons of frac sand consumption. *Tonnage and percentage estimates are based on data for the last three quarters of 2013 and 1st quarter of 2014. **Numbers do not add up to 100 percent because of rounding to the nearest whole percent. All estimates are subject to revision. Data from PacWest (2014b).
Fracking operations in the Eagle Ford and Woodbine Formations, in the East Texas Basin in Texas, were the largest user of frac sand among the major plays shown in Figure 2 and Table 2 with consumption of about 9.5 Mt. The Basin has significant oil and gas production and high potential for long term future production. Most of the targets in the Basin are relatively shallow compared to the Bakken portion of the Williston Basin and some other producing shale basins, but there is also high potential for production from deep wells which are geologically attractive because of the potential for production from multiple stratigraphic zones, and less tight reservoir rock than some other basins (Schaefer, 2012). Interest in the Eagle Ford Formation in the Basin is demonstrated by the increase in the number of drilling permits issued. In 2010, about 1,000 permits were issued and in 2012 that number had increased to about 4,100 (King, 2014). At the end of September 2014 there were 244 rigs drilling horizontal wells and 15 drilling vertical wells in the Eagle Ford Formation, representing nearly 15 percent of all active drilling rigs in the United States (Eagle Ford Shale, 2014).
From 2009 through 2012 there was a 100 percent drilling success rate for production of oil and gas in the core area of the Woodbine portion of the play (Woodbine Acquisition, Inc. 2012). Frac sand consumed in the Basin represented about 30 percent of the frac sand consumed among all of the major plays listed in Table 2 and shown in Figure 2. Frac sand comprised about 95 percent of the proppant consumed in the play owing to the relatively shallow depths of the reservoirs and local sources of comparatively low-cost sand.
In respect to proppant use, the horizontal wells developed in the Bakken Formation hosted in the Williston Basin of Montana and North Dakota are an exception with the lowest percentage of sand used relative to other proppants among the current oil and gas plays in the United States. Figure 7 illustrates the Bakken Formation in the Williston Basin in Western North Dakota and Eastern Montana and the general trend for the use of proppant related to depth. The Bakken Formation has been estimated by the to contain a mean resource of 3.65 billion barrels of undiscovered recoverable oil and trillions of cubic feet of natural gas and is producing about 1 million barrels of oil per day (EIA, 2014; U.S. Geological Survey, 2013). It is anticipated by some analysts that the portion of the Formation located in North Dakota will produce about 1.6 million barrels of oil per day, plus natural gas in 2017 (Reuters, 2013). In mid-September, 2014, there were approximately 197 active drilling rigs in the Bakken-Three Forks Basin (189 of these in North Dakota) of which 178 rigs were drilling horizontal wells (Bakken Shale, 2014). About 69 percent, by weight, of the proppant used in the Basin was frac sand, 24 percent was ceramic, and 7 percent was RCS (PacWest, 2014b). The high heat and pressure associated with wells developed in the deepest part of the Williston Basin limits the use of frac sand to well depths of about 2,500 meters (m). In order to maximize production and longevity, the use of mixtures of proppants in differing proportions of sand, RCS, and ceramic proppant predominate at well depths deeper than 2,500 m. Most of the deepest wells in the Basin use a mix of RCS and ceramic proppant, which exhibit superior performance under higher pressure-temperature conditions than most sand, but at a higher cost per unit (PacWest, 2014b).
Figure 7. East-west cross-section showing the depth to the Bakken Formation in the Williston Basin of Western North Dakota and Eastern Montana and generalized trend of proppant types used in fracked wells. Mixtures of proppants in varying proportions are commonly used for maximizing conductivity and controlling cost. Selection generally corresponds with pressure and temperature conditions associated with the depth of wells (see map inset in upper left corner). Depths are shown as feet below sea level. Add approximately 1,800 ft. (550 m) for depth below surface. [Figure modified from EIA, 2014b and provided courtesy of Meg Coleman, EIA; NDGS, 2010, and PacWest, 2014].
In 2008, most horizontal drilling in the Bakken Formation concentrated on the eastern margins of the Williston Basin, reaching depths of about 2,100 m. By 2013, some wells were exceeding 3,000 m and the horizontal portion of these also increased substantially from about 1,500 m, with 10 stages, to about 3,000 m, with 32 stages. A stage is an interval within the wellbore in which fracking of the surrounding rock is performed. Multi-stage fracking is performed by temporarily isolating portions of a single wellbore multiple times with plugs in order to produce high water pressure and get maximum fracturing results in the most geologically productive intervals (Judice, 2012; Schlumberger, 2014b). The increase in the number of stages and greater depth resulted in greater consumption of proppant per hole and a greater variety of proppants to maximize conductivity. In the deepest parts of the Williston Basin, where depths are on the order of 3,400 m below the surface, there is a greater proportion of RCS and ceramic as a proppant with the deepest holes which approach over 3,000 m in depth using predominantly ceramic or solely ceramic proppant. Some wells also have different proportions of proppants for different stages (DTC Energy Group, Incorporated, 2013; Nordeng and Helms, 2010; Petroleum News Bakken, 2014; Schaefer, 2013; U.S. Geological Survey, 2013).
As shown in Table 2 and Figure 2, consumption of frac sand in the Appalachian region in the Northeastern United States and the Permian Basin, mostly in Texas, consumed approximately 6.8 Mt (22 percent) and 5.3 Mt (17 percent), respectively (PacWest, 2014b).
Technological Advances Increase Proppant Consumption Per Well
The surge in frac sand consumption relative to the number of active horizontal drilling rigs has increased substantially over the last several years. This results from numerous factors that include: 1) application of advanced technologies such as: (a) multi-stage and higher density hydraulic fracturing per well, which increased from an average of about 3.4 hydraulic fracturing stages in 2008 to over 13 at the beginning of 2012. In 2014, wells with 30 stages were not uncommon and some wells have as many as 50 stages; (b) methods that result in more extensive fracturing in bedrock; and (c) reservoir stimulation of older wells by hydraulic fracturing; 2) improved efficiencies by drilling multiple holes from one site with closer spacing; and 3) refreshing of previously fracked wells by re-fracking (CBC News, 2014; Helman, 2014; McDivitt, 2014; Nangia, 2013; Schaefer, 2009; Schlumberger, 2014a; Spencer, 2014; Tucker, 2013). These advances have increased the average proppant consumption per well. For example, in 2008, the average amount of proppant, which was nearly all sand, used per horizontal well was approximately 900 t for a 1,500 m well. In 2010, the average amount of sand used was closer to 2,300 t for a well completed on a 3,000-m length measured horizontally. In 2014, an average horizontal well consumed from 4,100 to nearly 5,000 t of proppant of which over 90 percent, by weight, was sand, equivalent to 40 to 50, 100 short-ton capacity train car loads. In a few recent cases, wells required about 9,000 t of sand (Cadre Proppants, 2013; Fielden, 2013; Rock Products, 2014). Also, a well may be refracked multiple times over its life to increase production or refresh the well (Streetwise Reports, 2013; Tate, 2014). For the purpose of comparison, from 2011 through mid-2014, the amount of proppant required for fracking a vertical drill hole, nearly all of which was sand, remained essentially level, at about 230 t per well (Down Hole Trader, 2014; Geiver, 2014; PacWest, 2014b).
The average amount of proppant used per unit distance for horizontal holes is expected to continue to climb with improved fracturing technologies, closer-spaced and increased number of stages per drill hole, and refreshing of previously developed wells.
Frac Sand Reserves and Resources
Published data pertaining to the total amount and distribution of frac sand reserves and resources in the United States are not available. Reserve data are published by some publicly traded companies in annual reports and other media mostly as aggregated estimates for multiple operations. For example, U.S. Silica, a publicly traded company, and among the largest producers of frac sand in the United States, reported combined reserves of 124 Mt among 15 operations across the country that meet API specifications for frac sand and control about 260 Mt of overall reserves (Yahoo Finance, 2014). Meeting API standards suggests that this is high-quality frac sand. In 2012, U.S. Silica stated that they have 40 to 45 years of frac sand reserves (Rigzone, 2012). In some cases, companies provide site specific data. For example, Hi-Crush Partners LP, also a publicly listed company, announced that they have a reserve of high quality frac sand at a company-owned facility in Wisconsin of about 57 Mt and an interest in another frac sand facility, also in Wisconsin, with about 43 Mt of reserves (ETF Channel, 2014).
Some privately owned companies do not make reserve information public, however Preferred Sands, LLC, recently published a frac sand reserve estimate of nearly 24 Mt in Wisconsin and 73 Mt in Nebraska (Younger, 2013; Preferred Sands, 2014). Northern Frac Proppants reports a reserve in excess of 35 Mt at their Alma Center, Wisconsin, frac sand operation and over 50 Mt at their undeveloped Jackson, Wisconsin, site (Northern Frac Proppants, 2014). Sierra Frac Sand, LLC, also published a frac sand reserve estimate of approximately 36-90 Mt at their operations in Minnesota and Wisconsin and about 36 Mt in Texas (Sierra Frac Sand, LLC, 2014).
A cursory review of published reserve data coupled with (1) the high number of permit applications for development of new frac sand mines in Wisconsin and other states; (2) mine life estimates and expansion plans for established operations; and (3) thickness and areal distribution of geologic formations in the Great Lakes Region, Texas, and other areas that contain favorable geology to host sand deposits that meet the frac sand specification requirements, suggests that the United States' reserves and resources at current prices are sufficient to meet demand for fracking requirements for the foreseeable future. Some of these deposits may not be developed because of factors that include thick overburden and other geologic and engineering challenges, absence of infrastructure, such as power and nearby rail transportation; and lack of available water, environmental concerns, preexisting development, societal pressure, and issues related to permitting.
Frac Sand Pricing
As a result of high demand and tight supply, the price of frac sand in 2013 increased to a national average of about $63 (avg. 2013) per ton FOB plant from about $50 (avg. 2013) per ton FOB plant in 1990 (U.S. Geological Survey,1991-2014). As discussed previously, the major factors that determine the cost and application for frac sand include: (1) grain strength, which is based on its SiO2 content and internal structure; (2) grain sphericity; (3) grain size; (4) grain size distribution; (5) and overall purity. In general, the relatively clean, coarse and high-silica high-strength "white" sands mined in Arkansas, Illinois, Minnesota, and Wisconsin bring the highest prices, averaging about $55 per ton FOB plant. The coarser-cleaner fractions bring premium prices of approximately $70 per ton FOB plant, because of higher conductivity which is especially desirable for the recovery of oil. In most cases, rail is the primary form of transportation to get sand from the mine to a transfer point and then, from there, trucked to the well site, and represents the highest post-mine cost. Adding to the cost burden of transportation some suppliers and consumers of frac sand are affected with logistical "bottlenecks" that result from the: lack of available hopper cars, limitations of branch lines to accommodate rail traffic, weight, and speed; complications associated with moving sand through the network of rail freight carriers that traverse the Midwest United States; shortages of truck drivers and truck availability; and constrained capacity at trans loading terminals (Gopinath and Pramanick, 2014; Minnesota Department of Transportation, 2012; Vectora Transportation, 2013).
Depending on the modes of transport, distances traveled, and number of transfer points, the cost of white frac sand may reach $170 per ton by the time it arrives at the well site (PacWest, 2014b). In 2013, brown sand represented about 35 percent by weight of the untreated sand used for fracking (PacWest, 2014b). In general, the brown sands mined in Louisiana and Texas are finer grain-sized, less spherical and lower purity quartz than Northern sand. They are generally considered lesser quality because of lower silica content with commensurate lower-strength and lower conductivity. Their relatively low resistance to pressure generally limits their use to a fracking depth of about 2,400 m. The sands are priced at about $65 per ton FOB plant (Ashwill, 2012; Carbo Ceramics, 2012; Lyle, 2011; PacWest, 2014b; U.S. Geological Survey, 1991-2014). On average, they are burdened with higher mining costs than mines in the Great Lakes Region, but experience significantly lower transportation costs because of the shorter distance and fewer transit points necessary to reach the well site.
Natural gas and oil recovered from fracking unconventional deposits has captured a significant share of current U.S. production. More than 80 percent of the natural gas wells developed in the United States over the next ten years are expected to require fracking and it is projected that by 2035 natural gas from fracked wells will represent more than a 75 percent share of the domestic supply. The EIA details how surging domestic oil production has narrowed net petroleum imports – from 60 percent of U.S. requirements in 2004 to 38 percent in 2013 (API, 2014a; 2014b).
The United States is the largest producer and consumer of frac sand in the world. Of the approximately 54 Mt of frac sand produced in 2014, the greatest percentage share required for tapping into unconventional deposits originated from the Great Lakes Region and Texas. These areas will likely continue to represent the largest production shares through the end of the decade as expansions at existing mines occur and new mines are developed. Further mine development in other states, such as Arkansas, and new mine development in Canada will also contribute additional supplies of frac sand. It has been estimated that frac sand consumption in the United States could approach 70 Mt by 2016 (PacWest, 2014a; Progressive Railroading, 2014). This amount of frac sand would have a value exceeding 4 billion dollars FOB plant as established plays are refreshed and further developed, and new plays are exploited (Hoerth, 2014). This consumption estimate is well within the limits of anticipated effective U.S. frac sand capacity. U.S. growth in consumption of frac sand was dramatic during the 4-year period of 2009 through 2012 with an estimated 49 percent CAGR as development of unconventional deposits was aggressively pursued. Barring factors that could negatively affect frac sand demand, such as major technological breakthroughs and/or a drop in oil and gas prices that are considered to be long term by the petroleum industry, frac sand will continue to represent the largest tonnage used among proppants and the highest total value for fracking until at least the year 2020, based primarily on: (1) its satisfactory performance in most applications; (2) its availability; and (3) its lower price compared to alternative materials. The average amount of proppant used per unit distance for horizontal holes is expected to continue to climb with improved fracturing technologies, closer-spaced stages and increased number of stages per drill hole. Demand for proppant will also increase as more previously drilled wells are refreshed, established ones further exploited, and new oil and gas fields are developed.
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In 2017, Vortex completed a large project with an industrial sand manufacturer to construct a new sand-processing facility. As part of this project, the client sought solutions for:
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Q: How to identify the number of records processed in some SAP transaction? I'm trying to view the total number of records including the processing time in generating a SAP table using a certain transaction code.
Let us take for example I want to view the Vendor Master Data by using the Transaction Code ZGTMM29. Once SAP is done processing and displays the table. I want also to view the total number of records processed above or somewhere in the table.

A: Well, you have to do some activities here, first of all you have to make debugging in your  program. SAP has many excellent features within and also you can make use of transaction 'ST05' for tracing, 'SE30' for runtime analysis and you can also make use of 'SE16N' to make some filters.
I have described you what I actually do to achieve what you want.


on Bollington Aqueduct between Clarence Mill and Hurst Lane. There will also be demonstrations of canalside crafts.
Canal- and nautical-themed evening - hosted by Bollington Folk Club.
The Group meets monthly, in liaison with the Canal and River Trust, to improve the canal towpath through Bollington. Why not join us ? Contact Malcolm Bailey for details - or just turn up on the day !
Bollington Folk Club regular Richard Sykes hosts a session of singing / playing – come down and take part, or just listen !


On 11 February 1985, Meat Is Murder was released and went to number 1 in the UK album charts.
The following shows for 2015 have been confirmed. More to follow. We will be celebrating the 30th anniversary of the number 1 album 'Meat Is Murder'.
We have a flurry of carefully selected shows coming up. Chester, Camden, Brighton. More special dates later in the year. See our events page for details and ticket links.
Gig announcement: on Friday 19 July, The Smiths Indeed will play Camden Jazz Cafe, celebrating 30 years of Hand In Glove. Info.