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1 ation, little is known about the dynamics of double infection.
2 o examined the nature of cell-mediated HIV-1 double infection.
3 sequence types, raising the possibility of a double infection.
4 ot the only factor contributing to nonrandom double infection.
5 fered additional survival costs when hosting double infections.
6 nt types of JCV at the same time, indicating double infections.
7 ymorphism and infection type suggesting that double infections are the stable type, with singly infec
12 of previously uninfected matrilines, (ii) a double infection in a matriline already bearing a differ
14 nfection line could be advantageous over the double-infection line in maximizing transmission efficie
15 ion line lost one dsRNA segment, whereas the double-infection line lost eight segments, including one
16 n line and at the embryo-larval stage in the double-infection line of OGV1 and OGV3; the RNA load of
17 ore, the duration of the larval stage of the double-infection line was found to be significantly long
18 ected larvae, we established a OGV1 and OGV3 double-infection line, in addition to a triple-infection
19 measured and were used to calculate whether double infection occurred at frequencies expected from r
20 r CXCR4-tropic HIV-1 Env and have found that double infection occurred more frequently than random ev
21 e found that regardless of the protein used, double infection occurred more frequently than random ev
24 Therefore, our results indicate that HIV-1 double infection occurs more frequently than it would at
25 pe 1 (HIV-1) infection is nonrandom and that double infection occurs more frequently than predicted f
26 evious study, we also demonstrated nonrandom double infection via dendritic cell (DC)-mediated HIV-1
29 from random distribution; increased rates of double infection were observed in both a T cell line and
30 asma cpn60 UT sequences, while identifying a double infection with SbGP/MPV and aster yellows (16SrI)