Category Archives: Genome

The Human Genome II
A lecture on Diagnostic Reasoning by Dr. David Ginsburg, MD This lecture was taught as a part of the University of Michigan Medical School #39;s M1 - Patients and Populations Sequence. Creative Commons Attribution-Non Commercial-Share Alike 3.0 License creativecommons.org

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The Human Genome II - Video

SPARTANSSS - 1/13/13 - Genome -HK416
Small preview on how crazy we were playing this past Sunday. We have many more and I believe I will be doing a video overview on my 416. So stay tuned! Like us on facebook and keep track of games, our kits and even ask us questions! facebook.com/spartanteam04

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SPARTANSSS - 1/13/13 - Genome -HK416 - Video

An international research consortium, led by Fujian Agriculture, Forestry University (FAFU) and BGI, has completed the first genome sequence of the diamondback moth (DBM), the most destructive pest of brassica crops. This work provides wider insights into insect adaptation to host plant and opens new ways for more sustainable pest management. The latest study was published online today in Nature Genetics.

The diamondback moth (Plutella xylostella) preferentially feeds on economically important food crops such as rapeseed, cauliflower and cabbage. It has developed resistance to against more than 50 insecticides, including DDT, Bt toxins, among others, making the use of chemicals as a control measurement become ineffective. It is estimated that the total cost associated with the damage and management is US$4-5 billion per year worldwide.

"The completed genome sequencing of DBM will lay a solid foundation for tracking the evolutionary mechanisms of how an insect evolves to become a successful herbivore that can defense many insecticides." said Professor Minsheng You, Vice President of FAFU and leader of the research team. "The work here also provides an invaluable resource for scientists to better understand the reasons why DBM is such a serious pest and how new strategies can be developed to control insect pests."

In this study, researchers sequenced the genome of DBM by whole genome shotgun (WGS) and fosmid clones technologies, yielding ~343 Mb draft genome with 18,071 predicted protein-coding genes. Compared with other sequenced insect species, they found that the diamondback moth possesses a relatively larger set of genes and a moderate number of gene families, suggesting the expansion of certain gene families. Additionally, the genome-based phylogeny demonstrated that DBM was a basal lepidopteran species, which is well supported by its modal karyotype.

Based on the genomic data generated from ~1,000 male pupae, researchers identified the genome-wide level of polymorphism within the sequenced DBM strain (Fuzhou-S), which may lay the genetic bases for DBM in adapting to various environmental challenges. They investigated a set of genes preferentially expressed at the larval stage that contribute to odorant chemoreception, food digestion and metabolic detoxification. Interestingly, they found that the co-expression of sulfatase modifying factor 1 (SUMF1) and glucosinolate sulfatase (GSS) genes may be crucial for DBM to become a successful cruciferous herbivore.

Insecticide tolerance or resistance may have contribution to the option of detoxification pathway in insect herbivores. In this study, researchers found DBM has a larger set of insecticide resistance-related genes than silkworm (B. mori) that had little exposure to insecticide over 5,000 years of domestication. They identified in DBM obvious gene duplications of four gene families that participated in xenobiotic detoxification in insects, including ATP-binding cassette (ABC) transporter families, the P450 monooxygenases (P450s), glutathione S-transferases (GSTs) and carboxylesterase (COEs). Notably, the further analysis highlighted the potential role of ABC transporters in detoxification.

The clever evolutionary trick has allowed DBM to become such a serious pest, and it may play an important role in the development of its ability to detoxify a wide range of chemicals. "Remarkably, it appears that the very genetic adaptations that allow DBM to detoxify the chemicals in its food plants, and also allow it to develop immunity to the insecticides used against it." commented by Professor Geoff Gurr of Charles Sturt University, Australia, one of the international collaborators.

Professor Jun Wang, Executive Director of BGI, said, "The availability of a reference genome for a species is extremely important in the deeper understanding of its biology and evolution. We are pleased to be part of this consortium and have the first publicly accessible database of diamondback moth genome. I expect we could translate our achievements into real actions for sustainable pest management in the near future."

More information: The complete genome sequence of diamondback moth is publicly available via visit: http://www.iae.fafu.edu.cn/DBM

Journal reference: Nature Genetics

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Diamondback moth genome provides new clues for sustainable pest management

Jan. 13, 2013 An international research consortium, led by Fujian Agriculture, Forestry University (FAFU) and BGI, has completed the first genome sequence of the diamondback moth (DBM), the most destructive pest of brassica crops. This work provides wider insights into insect adaptation to host plant and opens new ways for more sustainable pest management.

The latest study was published online January 13 in Nature Genetics.

The diamondback moth (Plutella xylostella) preferentially feeds on economically important food crops such as rapeseed, cauliflower and cabbage. It has developed resistance to against more than 50 insecticides, including DDT, Bt toxins, among others, making the use of chemicals as a control measurement become ineffective. It is estimated that the total cost associated with the damage and management is US$4-5 billion per year worldwide.

"The completed genome sequencing of DBM will lay a solid foundation for tracking the evolutionary mechanisms of how an insect evolves to become a successful herbivore that can defense many insecticides." said Professor Minsheng You, Vice President of FAFU and leader of the research team. "The work here also provides an invaluable resource for scientists to better understand the reasons why DBM is such a serious pest and how new strategies can be developed to control insect pests."

In this study, researchers sequenced the genome of DBM by whole genome shotgun (WGS) and fosmid clones technologies, yielding ~343 Mb draft genome with 18,071 predicted protein-coding genes. Compared with other sequenced insect species, they found that the diamondback moth possesses a relatively larger set of genes and a moderate number of gene families, suggesting the expansion of certain gene families. Additionally, the genome-based phylogeny demonstrated that DBM was a basal lepidopteran species, which is well supported by its modal karyotype. Based on the genomic data generated from ~1,000 male pupae, researchers identified the genome-wide level of polymorphism within the sequenced DBM strain (Fuzhou-S), which may lay the genetic bases for DBM in adapting to various environmental challenges. They investigated a set of genes preferentially expressed at the larval stage that contribute to odorant chemoreception, food digestion and metabolic detoxification. Interestingly, they found that the co-expression of sulfatase modifying factor 1 (SUMF1) and glucosinolate sulfatase (GSS) genes may be crucial for DBM to become a successful cruciferous herbivore.

Insecticide tolerance or resistance may have contribution to the option of detoxification pathway in insect herbivores. In this study, researchers found DBM has a larger set of insecticide resistance-related genes than silkworm (B.mori) that had little exposure to insecticide over 5,000 years of domestication. They identified in DBM obvious gene duplications of four gene families that participated in xenobiotic detoxification in insects, including ATP-binding cassette (ABC) transporter families, the P450 monooxygenases (P450s), glutathione S-transferases (GSTs) and carboxylesterase (COEs). Notably, the further analysis highlighted the potential role of ABC transporters in detoxification.

The clever evolutionary trick has allowed DBM to become such a serious pest, and it may play an important role in the development of its ability to detoxify a wide range of chemicals. "Remarkably, it appears that the very genetic adaptations that allow DBM to detoxify the chemicals in its food plants, and also allow it to develop immunity to the insecticides used against it." commented by Professor Geoff Gurr of Charles Sturt University, Australia, one of the international collaborators.

Professor Jun Wang, Executive Director of BGI, said, "The availability of a reference genome for a species is extremely important in the deeper understanding of its biology and evolution. We are pleased to be part of this consortium and have the first publicly accessible database of diamondback moth genome. I expect we could translate our achievements into real actions for sustainable pest management in the near future."

The complete genome sequence of diamondback moth is publicly available via visit http://www.iae.fafu.edu.cn/DBM.

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Genome of diamondback moth provides new clues for sustainable pest management

Public release date: 13-Jan-2013 [ | E-mail | Share ]

Contact: Jia Liu liujia@genomics.cn BGI Shenzhen

January 13, 2013, Fujian and Shenzhen, China- An international research consortium, led by Fujian Agriculture, Forestry University (FAFU) and BGI, has completed the first genome sequence of the diamondback moth (DBM), the most destructive pest of brassica crops. This work provides wider insights into insect adaptation to host plant and opens new ways for more sustainable pest management. The latest study was published online today in Nature Genetics.

The diamondback moth (Plutella xylostella) preferentially feeds on economically important food crops such as rapeseed, cauliflower and cabbage. It has developed resistance to against more than 50 insecticides, including DDT, Bt toxins, among others, making the use of chemicals as a control measurement become ineffective. It is estimated that the total cost associated with the damage and management is US$4-5 billion per year worldwide.

"The completed genome sequencing of DBM will lay a solid foundation for tracking the evolutionary mechanisms of how an insect evolves to become a successful herbivore that can defense many insecticides." said Professor Minsheng You, Vice President of FAFU and leader of the research team. "The work here also provides an invaluable resource for scientists to better understand the reasons why DBM is such a serious pest and how new strategies can be developed to control insect pests."

In this study, researchers sequenced the genome of DBM by whole genome shotgun (WGS) and fosmid clones technologies, yielding ~343 Mb draft genome with 18,071 predicted protein-coding genes. Compared with other sequenced insect species, they found that the diamondback moth possesses a relatively larger set of genes and a moderate number of gene families, suggesting the expansion of certain gene families. Additionally, the genome-based phylogeny demonstrated that DBM was a basal lepidopteran species, which is well supported by its modal karyotype.

Based on the genomic data generated from ~1,000 male pupae, researchers identified the genome-wide level of polymorphism within the sequenced DBM strain (Fuzhou-S), which may lay the genetic bases for DBM in adapting to various environmental challenges. They investigated a set of genes preferentially expressed at the larval stage that contribute to odorant chemoreception, food digestion and metabolic detoxification. Interestingly, they found that the co-expression of sulfatase modifying factor 1 (SUMF1) and glucosinolate sulfatase (GSS) genes may be crucial for DBM to become a successful cruciferous herbivore.

Insecticide tolerance or resistance may have contribution to the option of detoxification pathway in insect herbivores. In this study, researchers found DBM has a larger set of insecticide resistance-related genes than silkworm (B. mori) that had little exposure to insecticide over 5,000 years of domestication. They identified in DBM obvious gene duplications of four gene families that participated in xenobiotic detoxification in insects, including ATP-binding cassette (ABC) transporter families, the P450 monooxygenases (P450s), glutathione S-transferases (GSTs) and carboxylesterase (COEs). Notably, the further analysis highlighted the potential role of ABC transporters in detoxification.

The clever evolutionary trick has allowed DBM to become such a serious pest, and it may play an important role in the development of its ability to detoxify a wide range of chemicals. "Remarkably, it appears that the very genetic adaptations that allow DBM to detoxify the chemicals in its food plants, and also allow it to develop immunity to the insecticides used against it." commented by Professor Geoff Gurr of Charles Sturt University, Australia, one of the international collaborators.

Professor Jun Wang, Executive Director of BGI, said, "The availability of a reference genome for a species is extremely important in the deeper understanding of its biology and evolution. We are pleased to be part of this consortium and have the first publicly accessible database of diamondback moth genome. I expect we could translate our achievements into real actions for sustainable pest management in the near future."

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The genome of diamondback moth provides new clues for sustainable pest management

Pyruvate Carboxylase Deficiency - A Bibliography And Dictionary For Physicians, Patients, And Genome
http://www.tradebit.com Pyruvate Carboxylase Deficiency - A Bibliography And Dictionary For Physicians, Patients, And Genome Researchers - Icon Health Publications This is a 3-in-1 reference book. It gives a complete medical dictionary covering hundreds of terms and expressions relating to Pyruvate carboxylase deficiency. It also gives extensive lists of bibliographic citations. Finally, it provides information to users on how to update their knowledge using various Internet resources. The book is designed for physicians, medical students preparing for Board examinations, medical researchers, and patients who want to become familiar with research dedicated to Pyruvate carboxylase deficiency. If your time is valuable, this book is for you. First, you will not waste time searching the Internet while missing a lot of relevant information. Second, the book also saves you time indexing and defining entries. Finally, you will not waste time and money printing hundreds of web pages.Author: ICON Health Publications Publisher: ICON Health Publications Illustration: N Language: ENG Title: Pyruvate Carboxylase Deficiency - A Bibliography and Dictionary for Physicians, Patients, and Genome Researchers Pages: 00112 (Encrypted PDF) On Sale: 2007-07-18 SKU-13/ISBN: 9780497112844 Category: Medical : Diseases This is a 3-in-1 reference book. It gives a complete medical dictionary covering hundreds of terms and expressions relating to Pyruvate carboxylase deficiency. It also gives extensive lists ...

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Retinoblastoma - A Bibliography And Dictionary For Physicians, Patients, And Genome Researchers - Ic
http://www.tradebit.com Retinoblastoma - A Bibliography And Dictionary For Physicians, Patients, And Genome Researchers - Icon Health Publications This is a 3-in-1 reference book. It gives a complete medical dictionary covering hundreds of terms and expressions relating to retinoblastoma. It also gives extensive lists of bibliographic citations. Finally, it provides information to users on how to update their knowledge using various Internet resources. The book is designed for physicians, medical students preparing for Board examinations, medical researchers, and patients who want to become familiar with research dedicated to retinoblastoma. If your time is valuable, this book is for you. First, you will not waste time searching the Internet while missing a lot of relevant information. Second, the book also saves you time indexing and defining entries. Finally, you will not waste time and money printing hundreds of web pages.Author: ICON Health Publications Publisher: ICON Health Publications Illustration: N Language: ENG Title: Retinoblastoma - A Bibliography and Dictionary for Physicians, Patients, and Genome Researchers Pages: 00292 (Encrypted PDF) On Sale: 2007-07-18 SKU-13/ISBN: 9780497112868 Category: Medical : Diseases This is a 3-in-1 reference book. It gives a complete medical dictionary covering hundreds of terms and expressions relating to retinoblastoma. It also gives extensive lists of bibliographic citations. icon health publications, medical, diseases

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The Jurassic Genome
Science for the Public, December 09, 2009. Chris Organ, PhD, Adjunct Professor, Brown University; Postdoctoral Fellow, Harvard University. Recent discoveries of preserved genetic material in ancient fossils are providing a much more accurate and comprehensive biological profile of extinct organisms than was previously possible to obtain. Dr. Chris Organ has been a leader in developing this research and the techniques that make it possible. He explains how scientists are using ancient genomes to reveal the biological and evolutionary facts of extinct creatures, from dinosaurs to Neanderthals. In this presentation, Dr. Organ describes the detective work that has led to an understanding of how birds evolved from one line of dinosaurs.

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LCC Human Genome Project Research
LCC student needing to research the Human Genome Project can check out Learn.genetics for information. Citation suggestions provided

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Charting the 3D Genome Landscape - Jesse Dixon
Toward the 3D Virtual Cell Conference, December 13-14, 2012 - San Diego Charting the 3D Genome Landscape - Jesse Dixon, UCSD

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Charting the 3D Genome Landscape - Jesse Dixon - Video