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1.  Taking the First Steps towards a Standard for Reporting on Phylogenies: Minimal Information about a Phylogenetic Analysis (MIAPA) 
In the eight years since phylogenomics was introduced as the intersection of genomics and phylogenetics, the field has provided fundamental insights into gene function, genome history and organismal relationships. The utility of phylogenomics is growing with the increase in the number and diversity of taxa for which whole genome and large transcriptome sequence sets are being generated. We assert that the synergy between genomic and phylogenetic perspectives in comparative biology would be enhanced by the development and refinement of minimal reporting standards for phylogenetic analyses. Encouraged by the development of the Minimum Information About a Microarray Experiment (MIAME) standard, we propose a similar roadmap for the development of a Minimal Information About a Phylogenetic Analysis (MIAPA) standard. Key in the successful development and implementation of such a standard will be broad participation by developers of phylogenetic analysis software, phylogenetic database developers, practitioners of phylogenomics, and journal editors.
doi:10.1089/omi.2006.10.231
PMCID: PMC3167193  PMID: 16901231
2.  The draft genome of the transgenic tropical fruit tree papaya (Carica papaya Linnaeus) 
Ming, Ray | Hou, Shaobin | Feng, Yun | Yu, Qingyi | Dionne-Laporte, Alexandre | Saw, Jimmy H. | Senin, Pavel | Wang, Wei | Ly, Benjamin V. | Lewis, Kanako L. T. | Salzberg, Steven L. | Feng, Lu | Jones, Meghan R. | Skelton, Rachel L. | Murray, Jan E. | Chen, Cuixia | Qian, Wubin | Shen, Junguo | Du, Peng | Eustice, Moriah | Tong, Eric | Tang, Haibao | Lyons, Eric | Paull, Robert E. | Michael, Todd P. | Wall, Kerr | Rice, Danny W. | Albert, Henrik | Wang, Ming-Li | Zhu, Yun J. | Schatz, Michael | Nagarajan, Niranjan | Acob, Ricelle A. | Guan, Peizhu | Blas, Andrea | Wai, Ching Man | Ackerman, Christine M. | Ren, Yan | Liu, Chao | Wang, Jianmei | Wang, Jianping | Na, Jong-Kuk | Shakirov, Eugene V. | Haas, Brian | Thimmapuram, Jyothi | Nelson, David | Wang, Xiyin | Bowers, John E. | Gschwend, Andrea R. | Delcher, Arthur L. | Singh, Ratnesh | Suzuki, Jon Y. | Tripathi, Savarni | Neupane, Kabi | Wei, Hairong | Irikura, Beth | Paidi, Maya | Jiang, Ning | Zhang, Wenli | Presting, Gernot | Windsor, Aaron | Navajas-Pérez, Rafael | Torres, Manuel J. | Feltus, F. Alex | Porter, Brad | Li, Yingjun | Burroughs, A. Max | Luo, Ming-Cheng | Liu, Lei | Christopher, David A. | Mount, Stephen M. | Moore, Paul H. | Sugimura, Tak | Jiang, Jiming | Schuler, Mary A. | Friedman, Vikki | Mitchell-Olds, Thomas | Shippen, Dorothy E. | dePamphilis, Claude W. | Palmer, Jeffrey D. | Freeling, Michael | Paterson, Andrew H. | Gonsalves, Dennis | Wang, Lei | Alam, Maqsudul
Nature  2008;452(7190):991-996.
Papaya, a fruit crop cultivated in tropical and subtropical regions, is known for its nutritional benefits and medicinal applications. Here we report a 3× draft genome sequence of ‘SunUp’ papaya, the first commercial virus-resistant transgenic fruit tree1 to be sequenced. The papaya genome is three times the size of the Arabidopsis genome, but contains fewer genes, including significantly fewer disease-resistance gene analogues. Comparison of the five sequenced genomes suggests a minimal angiosperm gene set of 13,311. A lack of recent genome duplication, atypical of other angiosperm genomes sequenced so far2–5, may account for the smaller papaya gene number in most functional groups. Nonetheless, striking amplifications in gene number within particular functional groups suggest roles in the evolution of tree-like habit, deposition and remobilization of starch reserves, attraction of seed dispersal agents, and adaptation to tropical daylengths. Transgenesis at three locations is closely associated with chloroplast insertions into the nuclear genome, and with topoisomerase I recognition sites. Papaya offers numerous advantages as a system for fruit-tree functional genomics, and this draft genome sequence provides the foundation for revealing the basis of Carica's distinguishing morpho-physiological, medicinal and nutritional properties.
doi:10.1038/nature06856
PMCID: PMC2836516  PMID: 18432245
3.  ChloroplastDB: the Chloroplast Genome Database 
Nucleic Acids Research  2005;34(Database issue):D692-D696.
The Chloroplast Genome Database (ChloroplastDB) is an interactive, web-based database for fully sequenced plastid genomes, containing genomic, protein, DNA and RNA sequences, gene locations, RNA-editing sites, putative protein families and alignments (). With recent technical advances, the rate of generating new organelle genomes has increased dramatically. However, the established ontology for chloroplast genes and gene features has not been uniformly applied to all chloroplast genomes available in the sequence databases. For example, annotations for some published genome sequences have not evolved with gene naming conventions. ChloroplastDB provides unified annotations, gene name search, BLAST and download functions for chloroplast encoded genes and genomic sequences. A user can retrieve all orthologous sequences with one search regardless of gene names in GenBank. This feature alone greatly facilitates comparative research on sequence evolution including changes in gene content, codon usage, gene structure and post-transcriptional modifications such as RNA editing. Orthologous protein sets are classified by TribeMCL and each set is assigned a standard gene name. Over the next few years, as the number of sequenced chloroplast genomes increases rapidly, the tools available in ChloroplastDB will allow researchers to easily identify and compile target data for comparative analysis of chloroplast genes and genomes.
doi:10.1093/nar/gkj055
PMCID: PMC1347418  PMID: 16381961

Results 1-3 (3)