quadgram

This is a table of type quadgram and their frequencies. Use it to search & browse the list to learn more about your study carrel.

quadgram frequency
of influenza a virus165
n and h n116
h n and h115
influenza a virus infection89
has been shown to83
in the presence of74
h n influenza virus72
memory cd t cells69
influenza a h n63
in the absence of61
middle east respiratory syndrome59
h n influenza a57
severe acute respiratory syndrome54
of influenza a viruses53
h n influenza viruses52
have been shown to51
east respiratory syndrome coronavirus47
pandemic h n influenza46
cells were infected with44
influenza a virus in44
in vitro and in43
highly pathogenic avian influenza40
cd t cells in40
in the united states40
the influenza a virus40
and h n viruses39
in the context of39
vitro and in vivo39
acute respiratory syndrome coronavirus37
been shown to be37
to display the preprint35
is the author funder35
the preprint in perpetuity35
license to display the35
a h n virus35
for the treatment of35
medrxiv a license to35
has granted medrxiv a35
granted medrxiv a license35
display the preprint in35
who has granted medrxiv35
a license to display35
in the case of35
of ha and na34
acute respiratory distress syndrome33
specific cd t cells33
t cells in the33
of the influenza virus33
n influenza a virus33
in the upper respiratory32
influenza virus infection in31
of the h n31
of the influenza a31
an important role in31
h n viruses were31
the upper respiratory tract31
on the surface of31
in influenza a virus31
were found to be30
of the nlrp inflammasome30
h n virus was29
as shown in fig29
of h n virus28
to influenza a virus28
of cd t cells28
h n virus in28
on the other hand27
cells were transfected with26
against influenza a virus26
respiratory syncytial virus infection26
not certified by peer25
certified by peer review25
which was not certified25
was not certified by25
the lower respiratory tract25
as well as the25
of h n influenza24
cd t cell responses24
the first report of24
influenza a and b24
of pandemic h n23
in a mouse model23
h n swine influenza23
influenza a virus replication23
during influenza virus infection23
a cells were infected23
the ha and na23
in the pathogenesis of23
holder for this preprint22
this preprint this version22
copyright holder for this22
the h n virus22
the copyright holder for22
preprint this version posted22
the pandemic h n22
for this preprint this22
human airway epithelial cells22
human immunodeficiency virus type21
influenza a viruses in21
h n virus isolates21
in the lungs of21
the activation of the21
no reuse allowed without20
reuse allowed without permission20
has been reported to20
with influenza a virus20
a mouse model of20
n influenza a viruses20
one of the most19
cd t cell response19
specific memory cd t19
cells were treated with19
able to bind to19
have been reported to18
influenza a virus and18
at a moi of18
n influenza virus infection18
influenza a virus hemagglutinin18
influenza h n virus18
were detected in swine18
for influenza virus replication18
oxidative medicine and cellular17
reproductive and respiratory syndrome17
as a result of17
of the immune system17
porcine reproductive and respiratory17
a and b viruses17
the h n and17
protein of influenza a17
min at room temperature17
influenza a virus from17
of influenza virus infection17
h n viruses in17
play a role in17
medicine and cellular longevity17
of h n pdm17
activation of the nlrp16
also been shown to16
of human influenza a16
in the lower respiratory16
of middle east respiratory16
and h n influenza16
for the development of16
highly pathogenic h n16
of respiratory syncytial virus16
h n avian influenza16
and respiratory syndrome virus16
for min at room16
of the innate immune16
response to iav infection16
the innate immune response16
reassortant h n virus16
of human immunodeficiency virus16
memory cd t cell16
specific cd t cell15
studies have shown that15
play an important role15
the expression of the15
of avian h n15
a wide range of15
had no effect on15
of influenza viruses in15
van eijk et al15
has also been shown15
n swine influenza virus15
was found to be15
iav h n pdm15
the surface of the15
has been demonstrated to15
at the nucleotide level15
innate immune response to15
avian influenza h n15
in a murine model15
it is possible that15
h n virus infection15
plays an important role15
origin h n influenza15
type i and type14
the network data exchange14
the host immune response14
on the expression of14
viruses were detected in14
these results suggest that14
was detected in the14
made available under a14
in addition to the14
of swine influenza virus14
presence or absence of14
it has been shown14
to influenza virus infection14
n influenza viruses in14
to the activation of14
proteins a and d14
surfactant proteins a and14
type i and iii14
a murine model of14
is known to be14
for influenza a virus14
in the respiratory tract14
h n pdm virus14
of tumor necrosis factor14
is also able to14
type i ifn signaling14
was shown to be14
ha and na genes14
of severe acute respiratory14
a and mdck cells13
cd t cells are13
a is the author13
of avian influenza a13
under a is the13
infected with h n13
h n pdm and13
is able to bind13
the innate immune system13
it is made available13
license it is made13
this version posted may13
h n virus antibodies13
in contrast to the13
is made available under13
is involved in the13
the nucleotide level and13
in the treatment of13
h n and a13
international license it is13
cells in the lung13
swine influenza a virus13
a virus infection by13
of h n and13
for the detection of13
followed by infection with13
influenza virus h n13
influenza viruses in pigs13
avian h n and13
available under a is13
virus was detected in13
as shown in figure13
the authors declare no13
the presence or absence13
influenza a virus ns13
is one of the13
infection with pr virus13
of influenza virus hemagglutinin13
of influenza a h13
the amino acid level13
has also been reported12
a critical role in12
avian influenza a h12
to the cell surface12
at the amino acid12
of swine influenza viruses12
were infected with iav12
of surfactant protein a12
in agreement with the12
the cd t cell12
were found infected with12
innate and adaptive immunity12
were found positive for12
response to influenza a12
on the cell surface12
the nuclear export of12
pathogenic avian influenza virus12
virus infection in mice12
the highest number of12
of three independent experiments12
at an moi of12
human h n virus12
immune response to influenza12
with respiratory syncytial virus12
the treatment of iav12
of pandemic influenza a12
as well as in12
the initial binding rate12
infected with pr virus12
in response to iav12
of influenza c virus12
and pandemic h n12
were transfected with a12
i and type iii11
the nlrp inflammasome in11
transmission of avian influenza11
cd t cells and11
the h n influenza11
morbidity and mortality in11
likely due to the11
of influenza virus infections11
induction of type i11
of type i ifn11
in the regulation of11
this is the first11
of cd t cell11
influenza virus m protein11
in the presence or11
human bronchial epithelial cells11
has the potential to11
in human airway epithelial11
the development of novel11
response to viral infection11
against influenza virus infection11
of the inflammatory response11
n viruses were detected11
in the induction of11
of memory cd t11
cells infected with iav11
characterization of h n11
n influenza virus in11
the protective role of11
in the development of11
influenza virus infection of11
cd t cell effector11
inflammatory cytokines and chemokines11
of type i interferon11
the antiviral activity of11
by infection with pr11
and lower respiratory tract11
has been shown that11
been shown to inhibit11
resident memory cd t11
increase in the ifitm11
by influenza a virus11
have been associated with11
viruses in pigs in11
the iav control group11
models of acute pneumonia11
been reported to be11
on the viral surface11
versus the iav control11
innate and adaptive immune11
the mechanism by which11
the authors declare that10
and h n virus10
transmission of influenza a10
the release of viral10
the role of the10
the h n pandemic10
at week and week10
identification and characterization of10
influenza virus ns protein10
no conflict of interest10
in the antigenic sites10
upper respiratory tract of10
as compared to the10
and influenza a virus10
and h n subtypes10
a virus ns protein10
be involved in the10
these results indicate that10
induced by pr virus10
no vac no cha10
for the generation of10
upper and lower respiratory10
a virus infection in10
mouse models of acute10
of an h n10
suggesting that pa may10
in comparison with pr10
cells in response to10
inhibition of iav infection10
at different time points10
the h n pdm10
by the addition of10
of mice infected with10
n virus isolates were10
during influenza a virus10
ha and na proteins10
pandemic h n virus10
of influenza virus in10
in the activation of10
swine in the united10
i and iii ifns10
pi k akt pathway10
been shown to have10
restricts influenza a virus10
sequences obtained from pigs10
in the response to10
in line with this10
a strong nuclear np10
innate immunity to influenza10
for the production of10
in iav infected cells10
human h n influenza10
for the first time10
have been identified in10
were infected with a10
west nile virus infection10
was used as a10
by the presence of10
is thought to be9
cells were incubated with9
of the immune response9
with adnrf followed by9
respiratory syndrome coronavirus infection9
influenza virus in a9
of surfactant protein d9
required for influenza virus9
n avian influenza virus9
claims in published maps9
the immune response to9
and other respiratory viruses9
of influenza b virus9
influenza virus infections in9
of the ha protein9
t cell response to9
published maps and institutional9
following respiratory virus infection9
the presence of serum9
in the immune system9
n viruses were identified9
ind entry of iav9
systematic review and meta9
during respiratory syncytial virus9
nature remains neutral with9
strains of h n9
and activator of transcription9
in published maps and9
avian and human iavs9
signal transducer and activator9
has been implicated in9
with pr virus alone9
of the pandemic h9
ha and na subtypes9
is consistent with the9
influenza a virus infections9
in the lung airways9
cells were seeded in9
with regard to jurisdictional9
transducer and activator of9
and the h n9
were found to have9
to the h n9
it is likely that9
response to cov infection9
springer nature remains neutral9
have been reported in9
at the site of9
jurisdictional claims in published9
h n and pandemic9
reported in swine in9
influenza a virus m9
the context of viral9
a role in the9
a cells infected with9
similar to that of9
it has been reported9
was performed using the9
to influenza a h9
of the viral genome9
in influenza virus infection9
remains neutral with regard9
in accordance with the9
neutral with regard to9
of type i ifns9
respiratory viral infections in9
like and atii cells9
in the present study9
and respiratory syncytial virus9
both in vitro and9
at the same time9
to jurisdictional claims in9
the presence of the9
mdck cells were infected9
maps and institutional affiliations9
lower respiratory tract of9
obtained from pigs sampled9
of surfactant proteins a9
the course of infection9
the lungs of mice9
respiratory syncytial virus and9
this version posted april9
a wide variety of9
n influenza viruses from9
a single amino acid9
h and h challenge9
regard to jurisdictional claims9
response to sars infection9
been shown to bind9
the presence of fcs9
a broad spectrum of9
influenza viruses in swine8
also able to bind8
the inhibitory effect of8
generation of recombinant influenza8
role of nrf in8
through the activation of8
note springer nature remains8
that they have no8
an influenza a virus8
the viral polymerase complex8
the specificity of the8
of the virus to8
and cd t cells8
influenza virus isolated from8
has been reported that8
iav infected a cells8
like h n and8
with h n pdm8
human influenza a viruses8
strong nuclear np signal8
effects of curcumin derivatives8
virus was isolated from8
resistance to influenza a8
origin h n virus8
the treatment of influenza8
authors declare no conflict8
the end of the8
has been associated with8
to the induction of8
in this study were8
nasal swabs and balf8
for the evaluation of8
isolation and characterization of8
and the cells were8
influenza a virus entry8
closely related to the8
on influenza a virus8
production of type i8
cd t cells is8
play a critical role8
the ha na balance8
was obtained from the8
mortality associated with influenza8
pfu cell pr virus8
of wdnhbe cells with8
of influenza a and8
h n or h8
was added to the8
of avian and human8
the magnitude of the8
our understanding of the8
against h n and8
and type iii ifn8
n virus was reported8
for min at uc8
and characterization of the8
iav infection in a8
treated with or without8
used in this study8
t cell effector functions8
pandemic influenza a h8
responses to influenza a8
a type ii transmembrane8
swine influenza virus in8
declare no conflict of8
of hepatitis c virus8
authors declare that they8
of cytokines and chemokines8
to swine transmission of8
a virus in swine8
pig id at week8
in lung epithelial cells8
our data suggest that8
of iav infection in8
to be able to8
respiratory virus infection in8
and h challenge strains8
pulmonary surfactant protein a8
the emergence of a8
both h n and8
was also shown to8
the pathogenesis of iav8
the activation of nf8
the case of sars8
the pathogenesis of influenza8
n or h n8
cytokines and chemokines in8
of swine influenza a8
pathogenic avian influenza h8
rift valley fever virus8
a large number of8
comparison with pr virus8
of the role of8
influenza viruses from pigs8
in cd t cell8
from apparently healthy swine8
complete genome sequence of8
type i ifn production8
surfactant protein d in8
associated with severe influenza8
formation of fusion pores8
n pdm and poly8
at the cell surface8
prior to infection with8
structure of the haemagglutinin8
shown to increase the8
to the plasma membrane8
and its role in8
of the cd t8
of highly pathogenic avian8
the generation of recombinant8
the plasma membrane of8
declare that they have8
the upper and lower8
ns protein of influenza8
respiratory tract of humans8
influenza a virus nucleoprotein8
like h n viruses8
with h n influenza8
at later time points8
in the supernatants of8
the formation of fusion8
van asbeck et al8
blunt the cytokine storm8
cells were fixed with8
influenza a viruses from8
avian h n influenza8
to be involved in8
infections in hospitalized children8
been shown to increase8
of a number of8
iav infection in the8
of avian influenza virus8
to be associated with7
replication and gene transcription7
pandemic influenza a virus7
we were able to7
the unfolded protein response7
a better understanding of7
was shown to decrease7
animal care and use7
to the presence of7
is likely due to7
shown to bind to7
against respiratory syncytial virus7
was shown to increase7
it has also been7
we found that the7
the length of the7
h n iav infection7
swine h n virus7
at the plasma membrane7
work was supported by7
inhibition of influenza virus7
influenza virus replication and7
a virus infection and7
infected with a pr7
to be required for7
as shown in table7
cells were inoculated with7
from a pig in7
fusion of the viral7
influenza virus infection a7
sibu and kapit hospitals7
cells and alveolar macrophages7
has been proposed to7
and ali bx zhou7
was determined by real7
fusion in virus entry7
as well as by7
with influenza a viruses7
it was demonstrated that7
cells in the presence7
were reported in swine7
peripheral blood mononuclear cells7
type i interferon signaling7
lower respiratory tract infection7
of type i and7
was used to assess7
physiologic levels of gm7
the induction of macropinocytosis7
the airway epithelium in7
care and use committee7
mbl is able to7
nl and hl nl7
several studies have shown7
structure and function of7
and genetic characteristics of7
was reported to be7
avian influenza a virus7
induces apoptosis in human7
transmission of h n7
frontiers in immunology www7
swine h n influenza7
at the time of7
the spatial organization of7
and characterization of a7
entry by blocking the7
immunity to influenza a7
viruses were identified in7
infection with adnrf followed7
receptor binding and membrane7
of h n iav7
was detected in swine7
is responsible for the7
ac and muc b7
that cd t cells7
of pig id at7
virus infection in a7
approximately log decrease at7
of type i interferons7
analysis was performed using7
activates the nlrp inflammasome7
response to h n7
cellular pi k akt7
growth factor receptor tyrosine7
were approved by the7
influenza a virus the7
of iav in swine7
respiratory syncytial virus in7
inflammation and ali bx7
in mice infected with7
between iav infection and7
cells were fixed and7
this work was supported7
it is clear that7
antigenic and genetic characteristics7
the host cell surface7
of influenza virus at7
the presence of a7
the type i interferon7
is well known that7
se of three independent7
van iwaarden et al7
immunity to influenza virus7
and membrane fusion in7
the results showed that7
characterization of a novel7
to that of the7
important role in the7
the integrity of the7
of h n avian7
cells in the lungs7
the viruses and their7
were infected with pr7
in the inhibition of7
hl nl and hl7
was also observed in7
for disease control and7
membrane fusion in virus7
threat to public health7
were treated with curcumin7
in the endoplasmic reticulum7
association between iav infection7
detection of influenza a7
bhb was shown to7
in the lung and7
of pi k akt7
a systematic review and7
avian h n virus7
the role of nrf7
induced inflammation and ali7
does not appear to7
the human cathelicidin ll7
been implicated in the7
to h n pdm7
pathogenic avian influenza a7
cells of the immune7
diversity of swine influenza7
antiviral effects of curcumin7
structure of the influenza7
of a novel influenza7
alveolar type ii cells7
the wiv treatment groups7
of avian influenza viruses7
in the culture supernatants7
genome replication and gene7
membrane glycoprotein of influenza7
the ns protein of7
on the host cell7
was supported by the7
type i ifn in7
the role of host7
for treatment of influenza7
was a gift from7
a broad range of7
in cells infected with7
on the role of7
influenza and other respiratory7
the periphery of the7
with or without pa7
are expressed as the7
the carbohydrate recognition domain7
the site of infection7
the middle east respiratory7
is also involved in7
factor receptor tyrosine kinases7
lower respiratory tract infections7
it is well known7
the antiviral potential of7
of the airway epithelium7
data are expressed as7
iav strains in swine7
glycoprotein of influenza virus7
in the current study7
and one h n7
the host immune system7
washed three times with7
h n influenza in7
both h and h7
inhibition of np expression7
muc ac and muc7
our results show that7
divergent at the nucleotide7
cells in the absence7
hepatitis c virus infection7
to blunt the cytokine7
in patients with severe7
and h n iav7
virus hemagglutinin and neuraminidase7
of viral respiratory infections7
vivo and in vitro7
disease control and prevention7
of swine influenza in7
binding and membrane fusion7
hek cells were transfected7
of seasonal and pandemic7
the infectious diseases ward7
viruses and their replication7
detected by western blotting6
and na genes of6
are shown in figure6
of acute respiratory distress6
for the activation of6
these data suggest that6
the apical surface of6
of severe influenza in6
n highly pathogenic avian6
authors declare no competing6
pdm virus isolates were6
of the viral polymerase6
an avian h n6
g cell cycle arrest6
has been linked to6
can lead to the6
and h n in6
for efficient influenza virus6
decrease at lg ml6
viruses have been reported6
inhibition of influenza a6
severe influenza virus infection6
into the mitochondrial matrix6
host factors crucial for6
used to determine the6
from pig id at6
identifies human host factors6
added to each well6
promoter is associated with6
is dependent on the6
the extent to which6
influenza viruses isolated from6
highly pathogenic strains of6
to play a role6
the first evidence of6
type i interferon production6
cd t cells to6
expression was detected by6
in the airway epithelium6
of acute lung injury6
at weeks of age6
in the course of6
cd t cells also6
with the plasma membrane6
blocking the formation of6
mediated activation of the6
on the infectious diseases6
seroprevalence of h n6
were negative for the6
an increased ifitm signal6
iav h n infection6
infection with h n6
the h n viruses6
associated with influenza a6
has been proven to6
pathology of influenza virus6
of influenza virus replication6
has been found to6
no significant difference in6
and the expression of6
efficient influenza virus propagation6
the increased expression of6
type i interferon and6
isolated from pigs in6
lung surfactant protein d6
influenza a virus through6
human influenza a h6
protein expression was detected6
novel reassortant h n6
would like to thank6
outbreak of influenza a6
prevalence of iav in6
the nature of the6
ifitm restricts the morbidity6
injury induced by pr6
new world bats harbor6
apoptosis in human airway6
mediate cellular resistance to6
the nlrp inflammasome and6
may contribute to the6
leads to the activation6
and mortality associated with6
the survival rate of6
no effect on the6
rnai screen identifies human6
the ifitm proteins mediate6
as well as to6
factors crucial for influenza6
human alveolar epithelial cells6
by type i ifn6
for h at room6
strains of influenza a6
human respiratory syncytial virus6
the plasma membrane and6
the s r mutation6
expressed as the mean6
wide rnai screen identifies6
induction of innate immune6
susceptible to iav infection6
the production of infectious6
was detected by western6
infected with influenza a6
diverse influenza a viruses6
treatment of iav infection6
cd t cells following6
induced acute lung injury6
network data exchange sars6
induced lung injury and6
in an elementary school6
an overview of the6
virus entry by blocking6
we did not observe6
were included in the6
detected in swine sera6
and the united states6
the protective effect of6
h n highly pathogenic6
consensomes and hct intersection6
of fusion pores following6
the acute respiratory distress6
the influenza virus hemagglutinin6
shown to inhibit the6
pi k akt signaling6
sitosterol on the expression6
in response to viral6
evolution and ecology of6
hek t cells were6
were significantly dysregulated by6
it is believed that6
expression was determined by6
national institutes of health6
and were found to6
the expression of rig6
test was used to6
of influenza virus is6
in a and mdck6
of the respiratory tract6
the possible role of6
virus was reported in6
reassortment between avian and6
to the production of6
have no competing interests6
iav infection in mice6
entry into host cells6
ecology of influenza a6
was performed using a6
fusion pores following virus6
by focus formation assay6
of human and animal6
infected a cells were6
to the expression of6
in absence of oc6
chronic obstructive pulmonary disease6
id at week and6
an increasing number of6
virus isolated from pigs6
human host factors crucial6
comparative histopathology of mouse6
the induction of type6
were identified in the6
log decrease at lg6
receptor specificity of the6
swine influenza a viruses6
cd t cells that6
cd and cd t6
the total number of6
the antigenic sites of6
acute lung injury in6
the severity of the6
hemagglutinin and neuraminidase activities6
linear ubiquitin chain assembly6
pandemic a h n6
can also bind to6
carbohydrate recognition domain of6
in hospitalized children in6
screen identifies human host6
ifitm restricts influenza a6
and human h n6
and h n avian6
influenza other respir viruses6
risk of severe influenza6
n swine influenza viruses6
the expression of proinflammatory6
sialic acids on the6
influenza a virus blocks6
virus titers in the6
of human influenza viruses6
cells infected with pandemic6
of the plasma membrane6
h n and human6
h n dk variant6
the morbidity and mortality6
and severe acute respiratory6
infection of mice with6
were identified in swine6
human influenza viruses to6
declare no competing interests6
of swine h n6
novel influenza a virus6
induced by iav infection6
van de wetering et6
in the lung during6
relationship and antiviral effects6
seasonal and pandemic influenza6
cellular resistance to influenza6
a virus in mice6
the cells were lysed6
may be involved in6
virus at a moi6
the molecular basis of6
viral titers in the6
a virus entry by6
ifitm proteins mediate cellular6
read and approved the6
the antiviral effects of6
detected in swine in6
the nlrp inflammasome by6
the pandemic potential of6
histopathology of mouse models6
morbidity and mortality associated6
in the direction of6
is important for the6
the last two decades6
be explained by the6
n virus in swine6
inhibitor of apoptosis protein6
the pathology of influenza6
susceptibility to influenza a6
bind to sialic acid6
the expression of il6
as part of the6
washed and incubated with6
an increase in the6
of innate immune responses6
rna and dna viruses6
the adaptive immune response6
will be required to6
incubated for min at6
harbor diverse influenza a6
as well as their6
restricts the morbidity and6
in the peripheral blood6
the ifitm signal intensity6
as well as a6
hepatitis c virus p6
of mouse models of6
we were unable to6
have also been reported6
to the lack of6
by blocking the formation6
in response to the6
and antiviral effects of6
by both h n6
type ii transmembrane protein6
can be induced by6
atii cells and am6
of defective interfering particles6
these studies indicate that6
in figshare file f6
crucial for influenza virus6
is located in the6
host immune response to6
human transmission of avian6
de wetering et al6
h n viruses reported6
reassortant h n viruses6
is associated with severe6
pathogenic potential of interferon6
h at room temperature6
cd t cells from6
in combination with the6
from three independent experiments6
proteins mediate cellular resistance6
h n influenza pandemic6
and the number of6
of porcine reproductive and6
antibodies were detected in6
treated with curcumin derivatives6
vesicular stomatitis virus infection6
cells were maintained in6
a cells were transfected6
h n virus and6
cells are critical for6
in response to influenza6
no vac cha group6
influenza viruses have been6
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viruses with pandemic potential4
nuclear export of the4
five active curcumin derivatives4
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sequence identity to a4
better understanding of the4
the globular head of4
along the length of4
sialic acids with neuraminidase4
virus in swine at4
ifitm disrupts intracellular cholesterol4
of the pandemic influenza4
were randomly divided into4
diet was shown to4
blocks autophagosome fusion with4
an h n influenza4
the severity of pandemic4
reported in chinese swine4
it is hypothesized that4
in influenza virus pneumonia4
avian influenza virus infection4
was isolated from a4
at uc for min4
a highly pathogenic h4
the detection of iav4
the cells were harvested4
inflammasome by iav virulence4
influenza a virus date4
virus isolates were retrieved4
as described in the4
ketogenic diet activates protective4
the determination of the4
penetrates host mucus by4
t cell responses to4
may be responsible for4
ifitm is required for4
activation in response to4
a virus genomic rna4
detection and isolation of4
journal of respiratory and4
of nlrp inflammasome activation4
influenza viruses to neuraminidase4
between avian and human4
is released from the4
in these primary cells4
influenza vaccine virus selection4
the interaction between respiratory4
to influenza a infection4
like cells and atii4
is a determinant of4
of the host immune4
of iav in pigs4
with h n iav4
the innate and adaptive4
apparently healthy swine in4
of the antiviral protein4
studies have also shown4
younger than years of4
these studies suggest that4
mediated inhibition of iav4
or h n subtypes4
strongly dependent on the4
that this effect is4
the amplitude of the4
using the geneoverlap analysis4
in upper respiratory tract4
the antiviral properties of4
of cd t lymphocytes4
at one of the4
of curcumin derivatives on4
at h post transfection4
in different cell types4
in each of the4
the seasonal influenza virus4
at least two different4
of the ns protein4
to the site of4
of influenza and other4
the distribution of the4
host immune response is4
is proportional to the4
involved in the influenza4
dimensional structure of the4
limited understanding of the4
which appeared to have4
have been demonstrated to4
protection against influenza virus4
pathogenesis of influenza a4
emergence of influenza a4
in type i interferon4
h n virus having4
a major role in4
time points after infection4
the capacity of the4
with iav before being4
which is known to4
fcs and mm dynasore4
global update on the4
a decrease in the4
influenza virus life cycle4
in immune response to4
compared with the control4
decrease the expression of4
avian and human influenza4
pa may be able4
with pandemic influenza a4
conditions of the creative4
animal and human health4
a and b virus4
a cells were pretreated4
and genetic characterization of4
sialic acid on the4
highest sequence identity to4
macrophages and neutrophils in4
detected in swine samples4
and porcine reproductive and4
h n and avian4
determined by tcid assay4
n and pandemic h4
cells infected with influenza4
cd t cell subsets4
the cleavage of sialic4
related to its inhibition4
respiratory and critical care4
in pigs in the4
in influenza virus infected4
ha and na in4
viruses the role of4
rna viruses such as4
of the hemagglutinin and4
influenza virus avian influenza4
have shown that the4
influenza viruses from swine4
iav replication through the4
inhibits the function of4
a vital role in4
in the first round4
a virus surveillance in4
type i ifn induction4
n influenza virus by4
were shown to be4
identified in this study4
in cells transfected with4
mediated disruption of ctcf4
avian and human iav4
article is an open4
sampled at week and4
did not result in4
research is needed to4
positive for at least4
lethal influenza virus challenge4
pig id sampled at4
shown to be a4
virus endocytic routes reveals4
pigs sampled at week4
surfactant protein d and4
and pandemic influenza a4
african green monkey kidney4
the replication cycle of4
was found to have4
the activity of na4
and four h n4
four h n viruses4
viruses to neuraminidase inhibitors4
respiratory disease outbreak in4
both the upper and4
for the pathogenesis of4
is an open access4
specific intercellular adhesion molecule4
homeostasis to block viral4
and na subtypes of4
of inflammatory cytokines and4
the increase in the4
cells with a strong4
n virus was detected4
in the influenza a4
and influenza susceptibility and4
virus isolated from a4
there is an urgent4
the no vac no4
identification of a novel4
the source of the4
absence or presence of4
acts as a receptor4
and to a lesser4
cells in the upper4
with pandemic h n4
be related to its4
of avian and mammalian4
the antigenic structure of4
percentage of necrotic cells4
to iav h n4
system for generation of4
glycosylation of the hemagglutinin4
the influenza virus disease4
m ion channel blockers4
respiratory syndrome coronavirus and4
is associated with risk4
and human iav binding4
in tissue culture cells4
results are expressed as4
lectin pathway of complement4
in swine at exhibitions4
intracellular cholesterol homeostasis to4
studies are needed to4
in the human respiratory4
in mediating viral clearance4
h n pdm subtypes4
is required for the4
found infected with h4
these data demonstrate that4
pr mtsin and wsn4
potential of interferon alphabeta4
human upper respiratory tract4
a penetrates host mucus4
the role of macrophage4
influenza a virus with4
virus from pigs in4
disrupts intracellular cholesterol homeostasis4
increased ifitm signal intensity4
ifitm restriction of viral4
by the influenza a4
hct intersection networks in4
cellular signaling pathway nodes4
the metabolic state of4
and activation of the4
for min followed by4
involved in regulation of4
of mbl in the4
ifitm signal intensity in4
cells transfected with vrna4
samples were negative for4
used for the treatment4
actin filaments of the4
dissection of the influenza4
analysis package in r4
genes in wdnhbe cells4
localization of ifitm and4
our results showed that4
iav has been shown4
the release of iav4
the impact of the4
the activity of the4
in mice challenged with4
syncytial virus and influenza4
the care and use4
on apparently vesicular structures4
f contributes to severe4
the sialic acid binding4
of the h hemagglutinin4
been found to be4
of the cytokine storm4
we will discuss the4
infected with iav at4
results showed that pa4
isolated from a swine4
gene of influenza a4
viral membrane fusion and4
into the mechanisms of4
lacking a strong nuclear4
system development and function4
there was no difference4
approaches for the development4
the cytokine storm in4
is a type ii4
and type iii interferons4
virus and influenza a4
fold by h n4
upon influenza virus infection4
the ratios of the4
a mouse model for4
consistent with our previous4
cytokine and chemokine secretion4
production of infectious dips4
detected in swine nasal4
influenza virus infected cells4
the iav m protein4
rsv and hrv were4
the first time the4
experiments were performed in4
nlg site at position4
with severe iav infection4
of the common cold4
known to be an4
initial binding rate by4
detection of influenza virus4
protective effects of the4
of the proinflammatory cytokines4
iav infection has also4
was observed during the4
of apoptotic cells in4
matrix protein of influenza4
reported to be required4
innate immune response and4
needed to determine the4
was determined by using4
lethal h n infection4
report of iav in4
is similar to that4
defective interfering influenza virus4
with iav h n4
of lung surfactant protein4
mucus by cleaving sialic4
replication of influenza a4
of influenza virus neuraminidase4
total rna was isolated4
the vast majority of4
prior to iav infection4
dengue and zika viruses4
to injury induced by4
cases of h n4
of interferon alphabeta in4
the top of the4
with an h n4
to a number of4
virus infection by preventing4
is likely to be4
activation of the interferon4
pdm viruses were reported4
protective role of nrf4
according to previously described4
we analyzed the effect4
genome uncoating are required4
routes reveals macropinocytosis as4
viruses during viral entry4
associated with the first4
mice infected with iav4
the inoculum was removed4
of the epidemiology and4
around individual influenza viruses4
a type i ifn4
cov infection on human4
sitosterol on the ifn4
of vdid dequenching in4
the origin of the4
cov e protein is4
and acute respiratory distress4