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1                                              HPIV1 and HPIV2 are best known to cause croup while HPIV
2            Human parainfluenza virus type 1 (HPIV1) also causes severe pediatric respiratory illness,
3 version of human parainfluenza virus type 1 (HPIV1) bearing a stabilized attenuating mutation in the
4            Human parainfluenza virus type 1 (HPIV1) is a significant cause of pediatric respiratory d
5            Human parainfluenza virus type 1 (HPIV1) is a significant cause of respiratory tract disea
6            Human parainfluenza virus type 1 (HPIV1) is an important respiratory pathogen in children
7            Human parainfluenza virus type 1 (HPIV1) is an important respiratory pathogen in young chi
8  (RSV) and human parainfluenza virus type 1 (HPIV1) to HPIV4 infect virtually all children by the age
9 imens (8 of 10 positive for HPIV serotype 1 [HPIV1], 9 of 10 positive for HPIV2, and 9 of 10 positive
10 V); human parainfluenza viruses 1, 2, and 3 (HPIV1, -2, and -3, respectively); and influenza A and B
11 (IFN) is induced following infection with an HPIV1 mutant expressing defective C proteins with an F17
12 nd immunogenic against the RSV F protein and HPIV1 in the hamster model and provided substantial prot
13  not express any of the four C proteins, and HPIV1-C(F170S), a less attenuated mutant that contains a
14 ranasal pediatric vaccine.IMPORTANCE RSV and HPIV1 are major viral causes of acute pediatric respirat
15 o provide a bivalent vaccine against RSV and HPIV1.
16 e pre-N position was immunogenic for RSV and HPIV1.
17 rapidly identifying mutations that attenuate HPIV1 and for generating live-attenuated HPIV1 vaccine c
18 In the present study, we sought to attenuate HPIV1 by the importation of one or more known attenuatin
19   Two recently characterized live attenuated HPIV1 vaccine candidates expressing mutant C proteins we
20 ate HPIV1 and for generating live-attenuated HPIV1 vaccine candidates.
21 r genes that otherwise would be repressed by HPIV1 infection.
22                       We similarly evaluated HPIV1-P(C-), a highly attenuated and apoptosis-inducing
23 tion is compromised, as in the case of F170S HPIV1, the resulting PKR activation and reduction in vir
24 meric form with its TMCT domain derived from HPIV1 F.
25 ous paramyxoviruses into homologous sites in HPIV1.
26     The RSV F gene was engineered to include HPIV1 transcription signals and inserted individually in
27 the anti-IFN and antiapoptotic activities of HPIV1 had additive effects on attenuation in vivo.
28 the anti-IFN and antiapoptosis activities of HPIV1 were separable: both activities are disabled in rH
29 er Sendai viruses (the murine counterpart of HPIV1) to noninvasively measure primary infection, immun
30  as a tool for the preclinical evaluation of HPIV1 vaccines, although how these in vitro data will co
31                      Thus, the C proteins of HPIV1 are nonessential but have anti-IFN and antiapoptos
32    Mutation or deletion of the C proteins of HPIV1 permitted the activation of over 2,000 cellular ge
33 ail (TMCT) domains substituted with those of HPIV1 F in an effort to direct packaging in the vector p
34                                  Recombinant HPIV1 (rHPIV1) mutants bearing a single imported mutatio
35 ent RSV/HPIV1 vaccine based on a recombinant HPIV1 vector, attenuated by a stabilized mutation, that
36 he preclinical development of a bivalent RSV/HPIV1 vaccine based on a recombinant HPIV1 vector, atten
37 actions, was used in this study to show that HPIV1 selectively infects ciliated cells within the HAE
38            Cellular pathways targeted by the HPIV1 C proteins were identified and their transcription
39 gmentation in LLC-MK2 cells, identifying the HPIV1 C proteins as inhibitors of apoptosis.
40  were ablated by a F170S substitution in the HPIV1 C proteins (F170S) or by silencing the C open read
41     Unmodified EBOV GP was packaged into the HPIV1 particle, and the TMCT modification did not increa
42 MCT) domains were replaced with those of the HPIV1 F protein in an effort to enhance packaging into t
43 us titer, supporting the hypothesis that the HPIV1 C proteins are critical for the inhibition of the
44                                    Thus, the HPIV1 C proteins normally limit the accumulation of dsRN
45 s the response of human respiratory cells to HPIV1 infection.
46 , but not following infection with wild-type HPIV1.
47 d were resistant to challenge with wild-type HPIV1.
48 ns a single point mutation in C and, like wt HPIV1, does not efficiently induce apoptosis, to examine
49     Infection with either mutant, but not WT HPIV1, induced a significant accumulation of intracellul
50  proteins was reduced compared to that of WT HPIV1.
51 V1-P(C-) protected against challenge with wt HPIV1, its highly restricted replication in AGMs and in
52 ssion kinetics to examine how wild-type (wt) HPIV1 infection altered gene expression in human respira
53  We found that infection with wild-type (WT) HPIV1 suppressed the innate immune response in human air
54  replicated as efficiently as wild-type (wt) HPIV1, but its titer subsequently decreased coincident w
55 he same as the final titer of wild-type (wt) HPIV1.

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