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1 s P, E, V and K within the NH(2) terminus of projectin.
2 r to the kinase domains of the twitchins and projectin.
3 e projectin sequence analysis, which defines projectin as a 1 MDa protein, composed of 39 immunoglobu
4  is consistent with the proposed function of projectin as a scaffold and ruler.
5  two Drosophila titin homologs, Sallimus and Projectin, as well as the key sarcomeric proteins Obscur
6 t the nearly complete sequence of Drosophila projectin, as well as the possible splicing patterns use
7  2 um to bridge the sarcomeric I-band, while Projectin covers almost the entire myosin filaments in a
8      These isoforms are discussed in view of projectin differential size and localization.
9                                 Twitchin and projectin evolved later by truncation.
10     Sequence similarity between twitchin and projectin further suggests how some domains may possibly
11                                              Projectin has been suggested as the elastic component of
12 cludes the giant kinases titin, twitchin and projectin, has sequences composed predominantly of seria
13  known as titin in vertebrates or kettin and projectin in insects.
14                                          The projectin insect protein functions jointly as a "scaffol
15                                   Drosophila projectin is an extremely large protein found within the
16           The overall domain organization in projectin is composed of repeated motifs I and II in a f
17                                              Projectin is encoded by a single gene and the isoforms w
18           The general domain organization of projectin is highly conserved, as are the protein sequen
19 ges across the flight muscle I-band, whereas Projectin is located at the beginning of the A-band.
20                  In Drosophila melanogaster, projectin is so far the only member of this family for w
21 fferent set of protein interactions for each projectin isoform.
22                              The synchronous projectin isoforms contain a PEVK-like region, and the p
23                  The PEVK-like domain of the projectin isoforms in indirect flight muscles may contri
24              An evolutionary analysis of the projectin molecule could potentially provide insight int
25                            The length of the projectin PEVK-like region varies from 100 to 624 amino
26  This may suggest distinct functions for the projectin protein in various muscles, as well as a diffe
27 s at the COOH terminus, leading to a shorter projectin protein lacking some of the terminal motifs II
28 alyses include assessing the localization of Projectin protein, a titin homolog, in sarcomeres as wel
29                 Phylogenetic analysis of the projectin proteins also supports a reclassification of t
30      Here, we describe the completion of the projectin sequence analysis, which defines projectin as
31                                   Drosophila projectin, the giant protein component of the third fila
32 e two Drosophila titin homologs Sallimus and Projectin to determine their precise location in intact
33                                 Twitchin and projectin, which are presumed to be orthologs, have unde