the springer index of viruses || rhinovirus∗

6
Rhinovirus Picornaviridae Dieter Blaas . Tim Skern Virion Morphology: Icosahedral Envelope: No Diameter (nm): 30 Length (nm): Structural Components: Capsid Buoyant Density (g/mL): 1.24–1.41 Buoyant Density Method: Metrizamide and CsCl Lipid Composition: No lipid Additional Information: Cleft (‘‘canyon’’) around five-fold axes of icosahedral symmetry Following the recommendations of the ICTV (http://ictvonline.org/virusTaxonomy.asp?version=2009) the former genus Rhinovirus was merged with the genus Enterovirus, which now includes the species bovine enterovirus, human enterovirus A, B, C, and D, human rhinovirus A, B, and C, porcine enterovirus B, and simian enterovirus A. . Human rhinovirus 2. Fig. 1 Electron cryo-microscopy image reconstruction. Length of bar (nm): 10 C. Tidona, G. Darai (eds.), The Springer Index of Viruses, DOI 10.1007/978-0-387-95919-1, # Springer Science+Business Media, LLC 2011

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Rhinovirus∗

Picornaviridae

Dieter Blaas . Tim Skern

. Human rhinovirus 2. Fig. 1

Electron cryo-microscopy image reconstruction. Length of bar (nm): 10

Virion

Morphology: Icosahedral

t

e

C#

Envelope:

Following the recommendations of the ICTV (http:/

he genus Enterovirus, which now includes the specie

nterovirus B, and simian enterovirus A.

. Tidona, G. Darai (eds.), The Springer Index of Viru

Springer Science+Business Media, LLC 2011

No

Diameter (nm):

30

Length (nm):

Structural Components:

Capsid

Buoyant Density (g/mL):

1.24–1.41

Buoyant Density Method:

Metrizamide and CsCl

Lipid Composition:

No lipid

Additional Information:

Cleft (‘‘canyon’’) around five-fold axes of icosahedral symmetry

/ictvonline.org/virusTaxonomy.asp?version=2009) the former genus Rhinovirus was merged with

s bovine enterovirus, human enterovirus A, B, C, and D, human rhinovirus A, B, and C, porcine

ses, DOI 10.1007/978-0-387-95919-1,

1326 Rhinovirus

Genome

Nucleic Acid: RNA

Strandedness:

Single-stranded

Polarity:

Positive-sense

Configuration:

Linear

Segment Organization:

Segment no. 1 (kb): 7.1

One segment(s):

7.1 (kb) total (calculated)

G + C content (%):

39

mRNA Transcripts:

1

Open reading frames:

1

Additional information:

Contains covalently linked Vpg at 50 end and poly-A at its 30 end

Replication

Entry mechanism: Receptor-mediated endocytosis via LDLR (12 types) or via ICAM-1 (87 types)

Site of transcription:

Cytoplasm (membrane-associated)

Transcriptase:

Virus-encoded RNA-dependent RNA polymerase (3D)

Site of genome replication:

Cytoplasm (membrane-associated)

Replicase:

Virus-encoded RNA-dependent RNA polymerase (3D)

Replication ntermediate:

Double-stranded RNA

Site of virion assembly:

Cytoplasm

Egress mechanism:

Cell lysis or other unknown mechanism

Additional information:

Replication in association with membranes

History

Year of

event

1914

Event

Intranasal inoculation with filtrates of nasal secretions of patients

References

Kruse W (1914) Munch Med Wochenschr

with colds induce colds in volunteers

Isolation of a virus from patients with a common cold infection

61:1547

Price WH (1956) Proc Natl Acad Sci USA

1956

42:892–896

Tyrrell DAJ, Chanock RM (1963) Science

1963 Coining of the term ‘‘rhinovirus’’

141:152–153

Kapikian AZ et al (1967) Nature 213:761–763

1967 Numbering system of rhinoviruses established by a collaborative

program (HRV1A - HRV55)

Characterization of rhinovirus particles and polypeptides

1971

1972

Characterization of the early events of virus - cell interaction

Medappa KC et al (1971) Virology 44:259–270

Lonberg-Holm K, Korant BD (1972) J Virol

9:29–40

Rhinovirus 1327

Year of

event

1973

Event

Crystallization of a rhinovirus

References

Korant BD, Stasny JT (1973) Virology

55:410–417

Lonberg-Holm K et al (1976) Nature

1976 First classification of rhinoviruses according to receptor groups

259:679–681

Cooney MK et al (1982) Infect Immun

1982 Antigenic groupings of 90 rhinovirus serotypes

37:642–647

Stanway G et al (1984) Nucleic Acids Res

1984 First complete nucleotide sequence of a rhinovirus (HRV14)

12:7859–7875

Rossmann MG et al (1985) Nature

1985 Three-dimensional structure of a rhinovirus (HRV14) at atomic

resolution

Isolation of a receptor protein involved in attachment of human

317:145–153

Tomassini JE, Colonno RJ (1986) J Virol

1986

rhinoviruses

Identification of intercellular adhesion molecule 1 (ICAM-1) as major

58:290–295

Staunton DE et al (1989) Cell 56:849–853;

1989

group rhinovirus receptor

Cryo-EM structure of the major group rhinovirus HRV14 complexed

Greve JM et al (1989) Cell 56:839–847

Olson NH et al (1993) Proc Natl Acad Sci USA

1993

to soluble ICAM-1

Identification of LDL-receptor and LDL-receptor related protein

90:507–511

Hofer F et al (1994) Proc Natl Acad Sci USA

1994

(LRP) as minor group rhinovirus receptors

First X-ray structure of a rhinovirus protein (the 3 C proteinase)

91:1839–1842

Allaire M et al (1994) Nature 369:72–76

1994

1999

Determination of the structure of the 2A proteinase of a rhinovirus Petersen JF et al (1999) EMBO J 18:5463–5475

2004

Sequences of VP1 of all rhinoviruses determined; there are Ledford RM et al (2004) J Virol 78:3663–3674

73 subgenus A and 26 subgenus B types

First X-ray structure of a rhinovirus-receptor complex

2004 Verdaguer N et al (2004) Nature Struct Mol

Biol 11:429–434

Vlasak M et al (2005) J Virol 79:7389–7395

2005 Misclassification of two major group rhinoviruses corrected; there

are now 12 minor group and 87 major group types

Discovery of ‘‘new’’ rhinovirus types tentatively classified as

2006

subgenus C (HRV-C)

Incorporation of the human rhinoviruses into the enterovirus genus

Lamson D et al (2006) J Infect Dis

194:1398–1402

http://www.ictvonline.org/virusTaxonomy.

2008

asp?version=2008

2008

Two thousand and three hundred2,300 nucleotide sequences

(partial or complete genome) of more than 100 human rhinovirus

genotypes determined and deposited in the database

Entire genome sequences of 99 HRV serotypes determined

2009 Palmenberg AC et al (2009) Science 324:55–59

Genus Members

Wild-

Species name

Human rhinovirus A, human rhinovirus B,

Synonyms

type

strains/

isolates

Natural

host

range

Human

Experimental host

range

Human and monkey;

Membership

status

human rhinovirus C (not yet approved by the

ICTV) (HRV-A, HRV-B, HRV-C)

and some

monkeys

can be adapted to

grow in mouse

. Genome organization of human rhinoviruses. Fig. 2

Vpg genome linked protein (3B), P1 capsid protein region, ntr non-translated region

1328 Rhinovirus

Nucleotide Sequences

Access

Genomic region

Complete genome

Species

HRV-A

Strain

HRV2

Nucleotides

7,102

number

X02316

References

Skern T et al (1985) Nucleic Acids Res 13:2111–2126

Complete genome

HRV-B HRV14 7,212 K02121 Stanway G et al (1984) Nucleic Acids Res 12:7859–7875

Complete genome

HRV-A HRV89 7,152 M16248 Duechler M et al (1987) Proc Natl Acad Sci USA

84:2605–2609

Hughes PJ et al (1988) J Gen Virol 69:49–58

Complete genome

complete genome

HRV-A

HRV-A

HRV1B

HRV16

7,133

7,124

D00239

L24917

Lee WM et al (1995) Virus Genes 9:177–181

Complete genome

HRV-C 024 7,099 EF582385 Lau SK et al (2007) J Clin Microbiol 45:3655–3664

Complete genome

HRV-C 025 7,114 EF582386 Lau SK et al (2007) J Clin Microbiol 45:3655–3664

Complete genome

HRV-C 026 7,086 EF582387 Lau SK et al (2007) J Clin Microbiol 45:3655–664

Proteins

Protein Number Molecular

Protein name

Capsid protein 4

name

abbreviation

1A, VP4

of amino

acids

weight

(kDa)

7

Time of

expression

Accession

numbers

P23008, P12916,

Additional information

Myristoylated; generated by

P04936, Q82081,

P03303, Q82122,

P07210

P23008, P12916,

cleavage of VP0 upon

encapsidation of the RNA

Capsid protein 2

1B, VP2 29

P04936, Q82081,

P03303, Q82122,

P07210

P23008, P12916,

Generated by cleavage of VP0

upon encapsidation of the RNA

Capsid protein 3

1C, VP3 20

P04936, Q82081,

P03303, Q82122,

P07210

P23008, P12916,

Capsid protein 1 1D, VP1 40

P04936, Q82081,

P03303, Q82122,

P07210

Rhinovirus 1329

Protein Number Molecular

Protein name

Proteinase 2A

name

abbreviation

2A

of amino

acids

weight

(kDa)

16

Time of

expression

Accession

numbers

P12916, P04936,

Additional information

Autocatalytic cysteine

P03303, Q82122,

P07210

P12916, P04936,

proteinase

2B

2B 11

P03303, Q82122,

P07210

P12916, P04936,

Involved in RNA replication

2C

2C 37

P03303, Q82122,

P07210

P12916, P04936,

Possibly involved in membrane

permeabilization, helicase?

3A

3A 9

P03303, Q82122,

P07210

P12916, P04936,

Membrane-binding, inhibits

protein excretion, involved in

replication

Covalently linked to 50-end of

Viral protein

genome linked

(Vpg)

3C proteinase

3B

2.4

P03303, Q82122,

P07210

P12916, P04936,

genomic RNA

3C

20

P03303, Q82122,

P07210

P12916, P04936,

Autocatalytic cysteine

proteinase

RNA-dependent

RNA polymerase

3D

52

P03303, Q82122,

P07210

P23008, P12916,

RNA polymerase, part of

replication complex

Capsid protein 0

1AB, VP0 36

P04936, Q82081,

P03303, Q82122,

P07210

P23008, P12916,

Precusor of 1A and 1B, present

in empty capsids and to a low

extent in mature virions

2BC protein

2BC 48

P04936, Q82081,

P03303, Q82122,

P07210

P23008, P12916,

Precursor of 2B and 2C,

involved in host range

determination

3CD protein

3CD 72

P04936, Q82081,

P03303, Q82122,

P07210

P23008, P12916,

Precursor of 3C and 3D,

probably processing P1 to the

capsid proteins

P1 protein

P1 96

P04936, Q82081,

P03303, Q82122,

P07210

P23008, P12916,

Precusor of capsid, product

of autocatalytic cleavage of

the growing polypeptide chain

by 2A

Precursor of 2A, 2B, and 2C

P2 protein P2 64

P04936, Q82081,

P03303, Q82122,

P07210

P23008, P12916,

P3 protein P3 83

P04936, Q82081,

P03303, Q82122,

P07210

Precusor of 3A, 3B, 3C, and 3D

1330 Rhinovirus

Biology

Additional

Species

HRV-A

Permissive cell lines

H1-HeLa, WI-38, MRC-5, fetal

Tissue tropism

Ciliated epithelial cells,

Cytopathic effects

In vivo: minor changes;

information

Optimal growth

tonsil cells

H1-HeLa, WI-38, MRC-5, fetal

upper respiratory tract

Ciliated epithelial cells,

in vitro: cell lysis

In vivo: minor changes;

temperature 34�C

Optimal growth

HRV-B

tonsil cells

H1-HeLa, WI-38, MRC-5, fetal

upper respiratory tract

Ciliated epithelial cells,

in vitro: cell lysis

In vivo: minor changes;

temperature 34�C

Optimal growth

HRV

(unassigned to

species)

HRV-C

tonsil cells, for BRV: BEK, BK

upper respiratory tract in vitro: cell lysis temperature 34�C

So far not cultivable

So far not cultivable So far not cultivable

Diseases

Affected Transmission Geographic

Disease

Common

Causative agent

HRV-A, HRV-B, HRV

organisms

Human

Disease characteristics

Sneezing, nasal obstruction,

route/vector

Airborne,

Treatment

distribution

World-wide

cold

(unassigned to species) nasal discharge, sore throat direct contact

Diagnosis

Sample Detection

Method

RT/PCR amplification of conserved

Species

HRV-A, HRV-B,

material

Nasal swabs

target

Viral RNA

Reference

Lamson D et al (2006) J Infect Dis

regions

HRV-C 194:1398–1402

References

Gwaltney JM Jr (1975) Yale J Biol Med 48:17–45

Picornavirus database. http://www.picornaviridae.com

Semler BL, Wimmer E (eds) (2002) Molecular biology of picronaviruses.

ASM Press, Washington, DC, pp 20036–2904. ISBN-10: 1555812104

ISBN-13: 978–1555812102

Stanway G et al (2005) Family picornaviridae. In: Fauquet CM,MayoMA,

Maniloff J, Desselberger U, Ball LA (eds) Virus taxonomy. Eighth

report of the international committee on taxonomy of viruses.

Elsevier/Academic Press, London

Stott EJ, Killington RA (1972) Ann. Rev Microbiol 26:503–524

Turner RB, Couch RB (2007) Rhinoviruses. In: Knipe DM, Howley PM

(eds) Fields virology, 5th edn. Lippincott Williams & Wilkins,

Philadelphia, pp 895–909. ISBN-10: 0781760607, ISBN-13: 978-

0781760607