Search

Your search keyword '"Christophides, George"' showing total 558 results
Start Over Author "Christophides, George"
558 results on '"Christophides, George"'

6. Toward the Definition of Efficacy and Safety Criteria for Advancing Gene Drive-Modified Mosquitoes to Field Testing.

Author

James, Stephanie, Marshall, John, Christophides, George, Okumu, Fredros, and Nolan, Tony

Subjects
biosafety, efficacy, gene drive, malaria, mosquito, Animals, Animals, Genetically Modified, Culicidae, Gene Drive Technology, Mosquito Control
Abstract

Mosquitoes containing gene drive systems are being developed as complementary tools to prevent transmission of malaria and other mosquito-borne diseases. As with any new tool, decision makers and other stakeholders will need to balance risks (safety) and benefits (efficacy) when considering the rationale for testing and deploying gene drive-modified mosquito products. Developers will benefit from standards for judging whether an investigational gene drive product meets acceptability criteria for advancing to field trials. Such standards may be formalized as preferred product characteristics and target product profiles, which describe the desired attributes of the product category and of a particular product, respectively. This report summarizes discussions from two scientific workshops aimed at identifying efficacy and safety characteristics that must be minimally met for an investigational gene drive-modified mosquito product to be deemed viable to move from contained testing to field release and the data that will be needed to support an application for first field release.

Published
2020

7. Toward the Definition of Efficacy and Safety Criteria for Advancing Gene Drive-Modified Mosquitoes to Field Testing.

Author

James, Stephanie L, Marshall, John M, Christophides, George K, Okumu, Fredros O, and Nolan, Tony

Subjects
biosafety, efficacy, gene drive, malaria, mosquito, Public Health and Health Services, Tropical Medicine
Abstract

Mosquitoes containing gene drive systems are being developed as complementary tools to prevent transmission of malaria and other mosquito-borne diseases. As with any new tool, decision makers and other stakeholders will need to balance risks (safety) and benefits (efficacy) when considering the rationale for testing and deploying gene drive-modified mosquito products. Developers will benefit from standards for judging whether an investigational gene drive product meets acceptability criteria for advancing to field trials. Such standards may be formalized as preferred product characteristics and target product profiles, which describe the desired attributes of the product category and of a particular product, respectively. This report summarizes discussions from two scientific workshops aimed at identifying efficacy and safety characteristics that must be minimally met for an investigational gene drive-modified mosquito product to be deemed viable to move from contained testing to field release and the data that will be needed to support an application for first field release.

Published
2020

8. Climate change and human health in the Eastern Mediterranean and Middle East: Literature review, research priorities and policy suggestions

Author

Neira, Marco, Erguler, Kamil, Ahmady-Birgani, Hesam, AL-Hmoud, Nisreen DaifAllah, Fears, Robin, Gogos, Charalambos, Hobbhahn, Nina, Koliou, Maria, Kostrikis, Leondios G., Lelieveld, Jos, Majeed, Azeem, Paz, Shlomit, Rudich, Yinon, Saad-Hussein, Amal, Shaheen, Mohammed, Tobias, Aurelio, and Christophides, George

Published
2023
Full Text
View/download PDF

11. REL2 overexpression in theAnopheles gambiaemidgut causes major transcriptional changes but fails to induce an immune response

Author

Hoermann, Astrid, primary, Capriotti, Paolo, additional, Del Corsano, Giuseppe, additional, Inghilterra, Maria Grazia, additional, Habtewold, Tibebu, additional, Cai, Julia A., additional, Saini, Gauri Sachiko, additional, Nguyen, Huong, additional, Windbichler, Nikolai, additional, and Christophides, George K., additional

Published
2024
Full Text
View/download PDF

12. Considerations for first field trials of low-threshold gene drive for malaria vector control

Author

Connolly, John B, Connolly, John B, Burt, Austin, Christophides, George, Diabate, Abdoulaye, Habtewold, Tibebu, Hancock, Penelope A, James, Anthony A, Kayondo, Jonathan K, Lwetoijera, Dickson Wilson, Manjurano, Alphaxard, McKemey, Andrew R, Santos, Michael R, Windbichler, Nikolai, Randazzo, Filippo, Connolly, John B, Connolly, John B, Burt, Austin, Christophides, George, Diabate, Abdoulaye, Habtewold, Tibebu, Hancock, Penelope A, James, Anthony A, Kayondo, Jonathan K, Lwetoijera, Dickson Wilson, Manjurano, Alphaxard, McKemey, Andrew R, Santos, Michael R, Windbichler, Nikolai, and Randazzo, Filippo

Abstract

Sustainable reductions in African malaria transmission require innovative tools for mosquito control. One proposal involves the use of low-threshold gene drive in Anopheles vector species, where a 'causal pathway' would be initiated by (i) the release of a gene drive system in target mosquito vector species, leading to (ii) its transmission to subsequent generations, (iii) its increase in frequency and spread in target mosquito populations, (iv) its simultaneous propagation of a linked genetic trait aimed at reducing vectorial capacity for Plasmodium, and (v) reduced vectorial capacity for parasites in target mosquito populations as the gene drive system reaches fixation in target mosquito populations, causing (vi) decreased malaria incidence and prevalence. Here the scope, objectives, trial design elements, and approaches to monitoring for initial field releases of such gene dive systems are considered, informed by the successful implementation of field trials of biological control agents, as well as other vector control tools, including insecticides, Wolbachia, larvicides, and attractive-toxic sugar bait systems. Specific research questions to be addressed in initial gene drive field trials are identified, and adaptive trial design is explored as a potentially constructive and flexible approach to facilitate testing of the causal pathway. A fundamental question for decision-makers for the first field trials will be whether there should be a selective focus on earlier points of the pathway, such as genetic efficacy via measurement of the increase in frequency and spread of the gene drive system in target populations, or on wider interrogation of the entire pathway including entomological and epidemiological efficacy. How and when epidemiological efficacy will eventually be assessed will be an essential consideration before decisions on any field trial protocols are finalized and implemented, regardless of whether initial field trials focus exclusively on the measur

Published
2024

18. Highly evolvable malaria vectors: The genomes of 16 Anopheles mosquitoes

Author

Neafsey, Daniel E, Waterhouse, Robert M, Abai, Mohammad R, Aganezov, Sergey S, Alekseyev, Max A, Allen, James E, Amon, James, Arcà, Bruno, Arensburger, Peter, Artemov, Gleb, Assour, Lauren A, Basseri, Hamidreza, Berlin, Aaron, Birren, Bruce W, Blandin, Stephanie A, Brockman, Andrew I, Burkot, Thomas R, Burt, Austin, Chan, Clara S, Chauve, Cedric, Chiu, Joanna C, Christensen, Mikkel, Costantini, Carlo, Davidson, Victoria LM, Deligianni, Elena, Dottorini, Tania, Dritsou, Vicky, Gabriel, Stacey B, Guelbeogo, Wamdaogo M, Hall, Andrew B, Han, Mira V, Hlaing, Thaung, Hughes, Daniel ST, Jenkins, Adam M, Jiang, Xiaofang, Jungreis, Irwin, Kakani, Evdoxia G, Kamali, Maryam, Kemppainen, Petri, Kennedy, Ryan C, Kirmitzoglou, Ioannis K, Koekemoer, Lizette L, Laban, Njoroge, Langridge, Nicholas, Lawniczak, Mara KN, Lirakis, Manolis, Lobo, Neil F, Lowy, Ernesto, MacCallum, Robert M, Mao, Chunhong, Maslen, Gareth, Mbogo, Charles, McCarthy, Jenny, Michel, Kristin, Mitchell, Sara N, Moore, Wendy, Murphy, Katherine A, Naumenko, Anastasia N, Nolan, Tony, Novoa, Eva M, O'Loughlin, Samantha, Oringanje, Chioma, Oshaghi, Mohammad A, Pakpour, Nazzy, Papathanos, Philippos A, Peery, Ashley N, Povelones, Michael, Prakash, Anil, Price, David P, Rajaraman, Ashok, Reimer, Lisa J, Rinker, David C, Rokas, Antonis, Russell, Tanya L, Sagnon, N'Fale, Sharakhova, Maria V, Shea, Terrance, Simão, Felipe A, Simard, Frederic, Slotman, Michel A, Somboon, Pradya, Stegniy, Vladimir, Struchiner, Claudio J, Thomas, Gregg WC, Tojo, Marta, Topalis, Pantelis, Tubio, José MC, Unger, Maria F, Vontas, John, Walton, Catherine, Wilding, Craig S, Willis, Judith H, Wu, Yi-Chieh, Yan, Guiyun, Zdobnov, Evgeny M, Zhou, Xiaofan, Catteruccia, Flaminia, Christophides, George K, Collins, Frank H, and Cornman, Robert S

Subjects
Biological Sciences, Bioinformatics and Computational Biology, Biomedical and Clinical Sciences, Genetics, Medical Microbiology, Biotechnology, Rare Diseases, Vector-Borne Diseases, Malaria, Infectious Diseases, 2.2 Factors relating to the physical environment, Infection, Good Health and Well Being, Animals, Anopheles, Base Sequence, Chromosomes, Insect, Drosophila, Evolution, Molecular, Genome, Insect, Humans, Insect Vectors, Molecular Sequence Data, Phylogeny, Sequence Alignment, General Science & Technology
Abstract

Variation in vectorial capacity for human malaria among Anopheles mosquito species is determined by many factors, including behavior, immunity, and life history. To investigate the genomic basis of vectorial capacity and explore new avenues for vector control, we sequenced the genomes of 16 anopheline mosquito species from diverse locations spanning ~100 million years of evolution. Comparative analyses show faster rates of gene gain and loss, elevated gene shuffling on the X chromosome, and more intron losses, relative to Drosophila. Some determinants of vectorial capacity, such as chemosensory genes, do not show elevated turnover but instead diversify through protein-sequence changes. This dynamism of anopheline genes and genomes may contribute to their flexible capacity to take advantage of new ecological niches, including adapting to humans as primary hosts.

Published
2015

19. Mosquito genomics. Highly evolvable malaria vectors: the genomes of 16 Anopheles mosquitoes.

Author

Neafsey, Daniel E, Waterhouse, Robert M, Abai, Mohammad R, Aganezov, Sergey S, Alekseyev, Max A, Allen, James E, Amon, James, Arcà, Bruno, Arensburger, Peter, Artemov, Gleb, Assour, Lauren A, Basseri, Hamidreza, Berlin, Aaron, Birren, Bruce W, Blandin, Stephanie A, Brockman, Andrew I, Burkot, Thomas R, Burt, Austin, Chan, Clara S, Chauve, Cedric, Chiu, Joanna C, Christensen, Mikkel, Costantini, Carlo, Davidson, Victoria LM, Deligianni, Elena, Dottorini, Tania, Dritsou, Vicky, Gabriel, Stacey B, Guelbeogo, Wamdaogo M, Hall, Andrew B, Han, Mira V, Hlaing, Thaung, Hughes, Daniel ST, Jenkins, Adam M, Jiang, Xiaofang, Jungreis, Irwin, Kakani, Evdoxia G, Kamali, Maryam, Kemppainen, Petri, Kennedy, Ryan C, Kirmitzoglou, Ioannis K, Koekemoer, Lizette L, Laban, Njoroge, Langridge, Nicholas, Lawniczak, Mara KN, Lirakis, Manolis, Lobo, Neil F, Lowy, Ernesto, MacCallum, Robert M, Mao, Chunhong, Maslen, Gareth, Mbogo, Charles, McCarthy, Jenny, Michel, Kristin, Mitchell, Sara N, Moore, Wendy, Murphy, Katherine A, Naumenko, Anastasia N, Nolan, Tony, Novoa, Eva M, O'Loughlin, Samantha, Oringanje, Chioma, Oshaghi, Mohammad A, Pakpour, Nazzy, Papathanos, Philippos A, Peery, Ashley N, Povelones, Michael, Prakash, Anil, Price, David P, Rajaraman, Ashok, Reimer, Lisa J, Rinker, David C, Rokas, Antonis, Russell, Tanya L, Sagnon, N'Fale, Sharakhova, Maria V, Shea, Terrance, Simão, Felipe A, Simard, Frederic, Slotman, Michel A, Somboon, Pradya, Stegniy, Vladimir, Struchiner, Claudio J, Thomas, Gregg WC, Tojo, Marta, Topalis, Pantelis, Tubio, José MC, Unger, Maria F, Vontas, John, Walton, Catherine, Wilding, Craig S, Willis, Judith H, Wu, Yi-Chieh, Yan, Guiyun, Zdobnov, Evgeny M, Zhou, Xiaofan, Catteruccia, Flaminia, Christophides, George K, Collins, Frank H, and Cornman, Robert S

Subjects
Animals, Humans, Anopheles, Drosophila, Malaria, Sequence Alignment, Insect Vectors, Evolution, Molecular, Phylogeny, Base Sequence, Molecular Sequence Data, Genome, Insect, Chromosomes, Insect, Evolution, Molecular, Genome, Insect, Chromosomes, General Science & Technology
Abstract

Variation in vectorial capacity for human malaria among Anopheles mosquito species is determined by many factors, including behavior, immunity, and life history. To investigate the genomic basis of vectorial capacity and explore new avenues for vector control, we sequenced the genomes of 16 anopheline mosquito species from diverse locations spanning ~100 million years of evolution. Comparative analyses show faster rates of gene gain and loss, elevated gene shuffling on the X chromosome, and more intron losses, relative to Drosophila. Some determinants of vectorial capacity, such as chemosensory genes, do not show elevated turnover but instead diversify through protein-sequence changes. This dynamism of anopheline genes and genomes may contribute to their flexible capacity to take advantage of new ecological niches, including adapting to humans as primary hosts.

Published
2015

20. VEuPathDB: the eukaryotic pathogen, vector and host bioinformatics resource center in 2023

Author

Alvarez-Jarreta, Jorge, primary, Amos, Beatrice, additional, Aurrecoechea, Cristina, additional, Bah, Saikou, additional, Barba, Matthieu, additional, Barreto, Ana, additional, Basenko, Evelina Y, additional, Belnap, Robert, additional, Blevins, Ann, additional, Böhme, Ulrike, additional, Brestelli, John, additional, Brown, Stuart, additional, Callan, Danielle, additional, Campbell, Lahcen I, additional, Christophides, George K, additional, Crouch, Kathryn, additional, Davison, Helen R, additional, DeBarry, Jeremy D, additional, Demko, Richard, additional, Doherty, Ryan, additional, Duan, Yikun, additional, Dundore, Walter, additional, Dyer, Sarah, additional, Falke, Dave, additional, Fischer, Steve, additional, Gajria, Bindu, additional, Galdi, Daniel, additional, Giraldo-Calderón, Gloria I, additional, Harb, Omar S, additional, Harper, Elizabeth, additional, Helb, Danica, additional, Howington, Connor, additional, Hu, Sufen, additional, Humphrey, Jay, additional, Iodice, John, additional, Jones, Andrew, additional, Judkins, John, additional, Kelly, Sarah A, additional, Kissinger, Jessica C, additional, Kittur, Nupur, additional, Kwon, Dae Kun, additional, Lamoureux, Kristopher, additional, Li, Wei, additional, Lodha, Disha, additional, MacCallum, Robert M, additional, Maslen, Gareth, additional, McDowell, Mary Ann, additional, Myers, Jeremy, additional, Nural, Mustafa Veysi, additional, Roos, David S, additional, Rund, Samuel S C, additional, Shanmugasundram, Achchuthan, additional, Sitnik, Vasily, additional, Spruill, Drew, additional, Starns, David, additional, Tomko, Sheena Shah, additional, Wang, Haiming, additional, Warrenfeltz, Susanne, additional, Wieck, Robert, additional, Wilkinson, Paul A, additional, and Zheng, Jie, additional

Published
2023
Full Text
View/download PDF

25. Immunity-Related Genes and Gene Families in Anopheles gambiae

Author

Christophides, George K., Zdobnov, Evgeny, Barillas-Mury, Carolina, Birney, Ewan, Blandin, Stephanie, Blass, Claudia, Brey, Paul T., Collins, Frank H., Danielli, Alberto, Dimopoulos, George, Hetru, Charles, Hoa, Ngo T., Hoffmann, Jules A., Kanzok, Stefan M., Letunic, Ivica, Levashina, Elena A., Loukeris, Thanasis G., Lycett, Gareth, Meister, Stephan, Michel, Kristin, Moita, Luis F., Müller, Hans-Michael, Osta, Mike A., Paskewitz, Susan M., Reichhart, Jean-Marc, Rzhetsky, Andrey, Troxler, Laurent, Vernick, Kenneth D., Vlachou, Dina, Volz, Jennifer, von Mering, Christian, Xu, Jiannong, Zheng, Liangbiao, Bork, Peer, and Kafatos, Fotis C.

Published
2002

26. The Genome Sequence of the Malaria Mosquito Anopheles gamblae

Author

Holt, Robert A., Subramanian, G. Mani, Halpern, Aaron, Sutton, Granger G., Charlab, Rosane, Nusskern, Deborah R., Wincker, Patrick, Clark, Andrew G., Wides, Ron, Salzberg, Steven L., Loftus, Brendan, Yandell, Mark, Majoros, William H., Rusch, Douglas B., Lai, Zhongwu, Kraft, Cheryl L., Abril, Josep F., Anthouard, Veronique, Arensburger, Peter, Atkinson, Peter W., Baden, Holly, de Berardinis, Veronique, Baldwin, Danita, Benes, Vladimir, Biedler, Jim, Blass, Claudia, Bolanos, Randall, Boscus, Didier, Barnstead, Mary, Cai, Shuang, Chatuverdi, Kabir, Christophides, George K., Chrystal, Mathew A., Clamp, Michele, Cravchik, Anibal, Curwen, Val, Dana, Ali, Delcher, Art, Dew, Ian, Evans, Cheryl A., Flanigan, Michael, Grundschober-Freimoser, Anne, Friedli, Lisa, Gu, Zhiping, Guan, Ping, Guigo, Roderic, Hillenmeyer, Maureen E., Hladun, Susanne L., Hogan, James R., Hong, Young S., Hoover, Jeffrey, Jaillon, Olivier, Ke, Zhaoxi, Kodira, Chinnappa, Kokoza, Elena, Koutsos, Anastasios, Letunic, Ivica, Levitsky, Alex, Liang, Yong, Lin, Jhy-Jhu, Lobo, Neil F., Lopez, John R., Malek, Joel A., McIntosh, Tina C., Meister, Stephan, Miller, Jason, Mobarry, Clark, Mongin, Emmanuel, Murphy, Sean D., O'Brochta, David A., Pfannkoch, Cynthia, Qi, Rong, Regier, Megan A., Remington, Karin, Shao, Hongguang, Sharakhova, Maria V., Sitter, Cynthia D., Shetty, Jyoti, Smith, Thomas J., Strong, Renee, Sun, Jingtao, Thomasova, Dana, Ton, Lucas Q., Topalis, Pantelis, Tu, Zhijian, Unger, Maria F., Walenz, Brian, Wang, Aihui, Wang, Jian, Wang, Mei, Wang, Xuelan, Woodford, Kerry J., Wortman, Jennifer R., Wu, Martin, Yao, Alison, Zdobnov, Evgeny M., Zhang, Hongyu, Zhao, Qi, Zhao, Shaying, Zhu, Shiaoping C., Zhimulev, Igor, Coluzzi, Mario, della Torre, Alessandra, Roth, Charles W., Louis, Christos, Kalush, Francis, Mural, Richard J., Myers, Eugene W., Adams, Mark D., Smith, Hamilton O., Broder, Samuel, Gardner, Malcolm J., Fraser, Claire M., Birney, Ewan, Bork, Peer, Brey, Paul T., Venter, J. Craig, Weissenbach, Jean, Kafatos, Fotis C., Collins, Frank H., and Hoffman, Stephen L.

Published
2002

27. Comparative Genome and Proteome Analysis of Anopheles gambiae and Drosophila melanogaster

Author

Zdobnov, Evgeny M., von Mering, Christian, Letunic, Ivica, Torrents, David, Suyama, Mikita, Copley, Richard R., Christophides, George K., Thomasova, Dana, Holt, Robert A., Subramanian, G. Mani, Mueller, Hans-Michael, Dimopoulos, George, Law, John H., Wells, Michael A., Birney, Ewan, Charlab, Rosane, Halpern, Aaron L., Kokoza, Elena, Kraft, Cheryl L., Lai, Zhongwu, Lewis, Suzanna, Louis, Christos, Barillas-Mury, Carolina, Nusskern, Deborah, Rubin, Gerald M., Salzberg, Steven L., Sutton, Granger G., Topalis, Pantelis, Wides, Ron, Wincker, Patrick, Yandell, Mark, Collins, Frank H., Ribeiro, Jose, Gelbart, William M., Kafatos, Fotis C., and Bork, Peer

Published
2002

35. VEuPathDB: the eukaryotic pathogen, vector and host bioinformatics resource center in 2023.

Author

Alvarez-Jarreta, Jorge, Amos, Beatrice, Aurrecoechea, Cristina, Bah, Saikou, Barba, Matthieu, Barreto, Ana, Basenko, Evelina Y, Belnap, Robert, Blevins, Ann, Böhme, Ulrike, Brestelli, John, Brown, Stuart, Callan, Danielle, Campbell, Lahcen I, Christophides, George K, Crouch, Kathryn, Davison, Helen R, DeBarry, Jeremy D, Demko, Richard, and Doherty, Ryan

Published
2024
Full Text
View/download PDF

43. Intracellular Plasmodium aquaporin 2 is important for sporozoite production in the mosquito vector and malaria transmission.

Author

Bailey, Alexander J., Ukegbu, Chiamaka Valerie, Giorgalli, Maria, Balthazar Besson, Tanguy Rene, Christophides, George K., and Vlachou, Dina

Subjects
AQUAPORINS, MOSQUITO vectors, PLASMODIUM, IMMOBILIZED proteins, MALARIA
Abstract

Malaria remains a devastating disease and, with current measures failing to control its transmission, there is a need for novel interventions. A family of proteins that have long been pursued as potential intervention targets are aquaporins, which are channels facilitating the movement of water and other solutes across membranes. We identify an aquaporin in malaria parasites and demonstrate that it is important for completion of Plasmodium development in the mosquito vector. Disruption of AQP2 in the human parasite Plasmodium falciparum and the rodent parasite Plasmodium berghei blocks sporozoite production inside oocysts established on mosquito midguts, greatly limiting parasite infection of salivary glands and transmission to a new host. In vivo epitope tagging of AQP2 in P. berghei, combined with immunofluorescence assays, reveals that the protein is localized in vesicle-like organelles found in the cytoplasm of gametocytes, ookinetes, and sporozoites. The number of these organelles varies between individual parasites and lifecycle stages suggesting that they are likely part of a dynamic endomembrane system. Phylogenetic analysis confirms that AQP2 is unique to malaria and closely related parasites and most closely resembles intracellular aquaporins. Structure prediction analyses identify several unusual features, including a large accessory extracellular loop and an arginine-to-phenylalanine substitution in the selectivity filter principally determining pore function, a unique feature among known aquaporins. This in conjunction with the importance of AQP2 for malaria transmission suggests that AQP2 may be a fruitful target of antimalarial interventions. [ABSTRACT FROM AUTHOR]

Published
2023
Full Text
View/download PDF

45. List of Contributors

Author

Asgari, Sassan, primary, Barillas-Mury, Carolina V., additional, Barletta, Ana Beatriz F., additional, Blair, Carol D., additional, Caragata, Eric P., additional, Christophides, George K., additional, Costero-Saint Denis, Adriana, additional, Foy, Brian D., additional, Gendrin, Mathilde, additional, Jacobs-Lorena, Marcelo, additional, Leitner, Wolfgang W., additional, Luckhart, Shirley, additional, Meyers, Jacob I., additional, Michel, Kristin, additional, Moreira, Luciano A., additional, Olson, Ken E., additional, Pan, Xiaoling, additional, Pietri, Jose E., additional, Ramirez, Jose L., additional, Rhodes, Victoria L.M., additional, Riehle, Michael A., additional, Rodgers, Faye H., additional, Strand, Michael R., additional, Thiem, Suzanne, additional, Vigneron, Aurélien, additional, Wali, Tonu M., additional, Wang, Sibao, additional, Weiss, Brian L., additional, and Xi, Zhiyong, additional

Published
2017
Full Text
View/download PDF

49. Pathogenomics of Culex quinquefasciatus and Meta-Analysis of Infection Responses to Diverse Pathogens

Author

Bartholomay, Lyric C., Waterhouse, Robert M., Mayhew, George F., Campbell, Corey L., Michel, Kristin, Zou, Zhen, Ramirez, Jose L., Das, Suchismita, Alvarez, Kanwal, Arensburger, Peter, Bryant, Bart, Chapman, Sinead B., Dong, Yuemei, Erickson, Sara M., Karunaratne, S. H. P. Parakrama, Kokoza, Vladimir, Kodira, Chinnappa D., Pignatelli, Patricia, Shin, Sang Woon, Vanlandingham, Dana L., Atkinson, Peter W., Birren, Bruce, Christophides, George K., Clem, Rollie J., Hemingway, Janet, Higgs, Stephen, Megy, Karine, Ranson, Hilary, Zdobnov, Evgeny M., Raikhel, Alexander S., Christensen, Bruce M., Dimopoulos, George, and Muskavitch, Marc A. T.

Published
2010

Catalog

Books, media, physical & digital resources
See catalog results