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User Guide |
All user interfaces include headers and footers to provide sort and search functions, respectively.
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Header
Some field names in a header have links to provide sort function. A first click sorts search results in ascending order while a second click organizes the results in descending order. A third click cancels the sorting. "More" links to a detailed description of each menu and "Help" displays brief information on each field.

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Footer
A ˇ°Searchˇ± function is provided in a footer region. For a search, users can select a field and enter a part of description or ID. Users can also choose the number of items to be displayed in one page.

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The following is a list of all menus included in ATMT database.
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ATMT Search provides the interface for ATMT mutant searches. A search can be done by a mutant ID or a combination of phenotypic data. A click on each mutant ID accesses tabularized data from high-throughput screening
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InDepth Browser provides a list of the 559 InDepth mutants with their original mutant IDs and brief descriptions. A click on each InDepth mutant links to its detailed information, such as experimental data from 7 phenotypic analyses and T-DNA-tagged locations (TTLs).
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T-DNA Browser provides the results from TAIL-PCR analysis of T-DNA insertions. Each sequence ID is linked to detailed information on the T-DNA tag, including its insertional position, locus/loci of affected gene(s) and a diagram. DNA and protein sequences of the affected gene can also be retrieved from our in-house database. Original sequence information was imported from the Magnaporthe grisea database at Broad Institute.
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Chromosome Viewer illustrates the distribution of TTLs on each chromosomes of M. oryzae. M. oryzae chromosomal information for genetic and optical mapping of TTLs was provided by genome database release 5 from Broad Institute. Each red line indicates one TTL insertion and numbers at bottom indicate the total numbers of TTLs on each chromosomes. UA indicates a collection of unassigned TTLs.
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Density Viewer displays the density of TTLs in every 100kb chromosomal region and offers graphical comparison of TTL densities among chromosomes.
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Glossary |
Disease cycle of Magnaporthe oryzae
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ATMT (Agrobacterium tumefaciens-meidated transformation) is an efficient tool for insertional mutagenesis used in many model organisms. In addition to high rates of single copy insertion of T-DNA (Rho et al., 2002), its big advantage over traditional chemical or radiation mutagenesis procedures is that the mutated genes are tagged by T-DNA and can subsequently be cloned using the T-DNA.
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T-DNAmeans the transferred DNA of the Ti plasmid vector of Agrobacterium tumefacines. The genes that are located in the T-DNA region contain the necessary structural features for expression in a transformed cell. The key elements of the T-DNA are the 25-base pair imperfect repeats present at the boundaries of the T-DNA (left border (LB) and right border (RB)).
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TAIL-PCR (Thermal Asymmetric Interlaced-PCR) is a powerful method to recover unknown DNA fragments adjacent to known sequences of T-DNA or transposon insertions (Liu et al., 1995; Smith et al., 1996). It uses nested, insertion-specific primers together with arbitrary degenerate (AD) primers having lower annealing temperatures. Relative amplification efficiencies of specific products and non-specific products are thermally controlled through alternating cycles of high and low annealing temperature. In the primary reaction, one low-stringency PCR cycle is conducted to create one or more annealing sites for an AD primer in the targeted sequence. A specific product is then preferentially amplified over nonspecific ones by interspersion of two high-stringency PCR cycles with one reduced-stringency PCR cycle. The nested PCR amplifications help to achieve higher specificity (Liu and Huang, 1998).
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TTL (T-DNA-Tagged Location) is defined as a DNA region containing one or more T-DNA insertions.
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InDepth is a subset of ATMT mutants selected via high-throughput screening based on their pathogenicity defects.
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