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lördag 14 december 2013

NIDOVIRALES 2006 . Coronaviruses, Toroviruses, Roniviruses, Arteriviruses

http://www.ncbi.nlm.nih.gov/pubmed/16503362

Virus Res. 2006 Apr;117(1):17-37. Epub 2006 Feb 28. Nidovirales: evolving the largest RNA virus genome.
Molecular Virology Laboratory, Department of Medical Microbiology, Leiden University Medical Center, LUMC E4-P, P.O. Box 9600, 2300 RC Leiden, The Netherlands.

TIIVISTELMÄ (Abstract)

Katsaus  kohdistuu monofyleettiseen eläinRNA-virus ryhmään,  NIDOVIRALES

  • Tämä käsittää kaukaisesti toistensa sukuiset coronavirukset  (Coronaviruses) torovirukset (Toroviruses)  ja ronivirukset (Roniviruses), joilla  on   suurin tunnettu RNA- genomi ( 26- 32 kb) ja  sen takia niitä sanotaan isoiksi nidoviruksiksi. Niitä vertaillaan niitten "serkkuihin", arteriviruksiin (Arteriviruses), jotka myös kuuluvat  NIDOVIRALES -viruksiin, vaikka niillä on  paljon pienempi genomi (13- 16 kb) .

This review focuses on the monophyletic group of animal RNA viruses united in the order Nidovirales. The order includes the distantly related coronaviruses, toroviruses, and roniviruses, which possess the largest known RNA genomes (from 26 to 32kb) and will therefore be called "large" nidoviruses in this review. They are compared with their arterivirus cousins, which also belong to the Nidovirales despite having a much smaller genome (13-16kb). 
  •  Otsikon artikkeli kuvaa yleisiä ja ainutlaatuisia piirteitä, joita nöissä  isoissa tai kaikissakin nidoviruksissa on tunnistettavissa, kuten  nidovirusten geneettinen ohjelma ja genomin diversiteetti, replikaasikoneiston  ja viruspartikkelien koostumus, viruksen spesifiset lisägeenit, RNA ja proteiinisynteesin mekanismit, pieni- ja isogenomisten nidovirusten alkulähde ja evoluutio. 
Common and unique features that have been identified for either large or all nidoviruses are outlined. These include the nidovirus genetic plan and genome diversity, the composition of the replicase machinery and virus particles, virus-specific accessory genes, the mechanisms of RNA and protein synthesis, and the origin and evolution of nidoviruses with small and large genomes. 
  •  Nidoviruksilla on yksisäikeiset,  polaarisuudeltaan positiiviset  polycistroniset RNA genomit, jotka ohjaavat replikatiivisen kompleksin alayksiköiden, kuten RNA.sta riippuvan RNApolymeraasin ja helikaasin  synteesin. 
Nidoviruses employ single-stranded, polycistronic RNA genomes of positive polarity that direct the synthesis of the subunits of the replicative complex, including the RNA-dependent RNA polymerase and helicase.
  •  Replikaasigeenin ilmenemää  kontrolloi  ylimpänä  ribosomaalinen ohjelmaa vaihtava signaali ja kymotrypsiinin kaltainen proteaasi, jota avustaa yksi tai useampi papaiinin tapainen proteaasi. 
 Replicase gene expression is under the principal control of a ribosomal frameshifting signal and a chymotrypsin-like protease, which is assisted by one or more papain-like proteases.

  •  Subgenominen  RNA-settisarja syntetisoituu ilmentämään 3´ORF:eja  ( open readign frames),  jotka koodaavat useimmat konservoidut rakenteelliset proteiinit ja joissain isoissa nidoviruksissa myös erilaisia lisäproteiineja, jotka saattavat edistää viruksen adaptoitumista  spesifisiin isäntiin. 
A nested set of subgenomic RNAs is synthesized to express the 3'-proximal ORFs that encode most conserved structural proteins and, in some large nidoviruses, also diverse accessory proteins that may promote virus adaptation to specific hosts.
  •  Replikaasikoneisto käsittää  setin RNA:ta prosessoivia entsyymeitä, joissa jotkut ovat jollekin tai kaikille isoille nidoviruksille ainutlaatuisia. Tällaisten entsyymien hankkiminen lienee parantanut RNA-replikaation vähemmän uskollista  toistamista sallien genomin expansion  ja tuottaa  jatkossa esiviruksia niin pienille kuin suurille nidoviruksille. 
The replicase machinery includes a set of RNA-processing enzymes some of which are unique for either all or large nidoviruses. The acquisition of these enzymes may have improved the low fidelity of RNA replication to allow genome expansion and give rise to the ancestors of small and, subsequently, large nidoviruses.
 
(Huomt. Torovirukset katsotaan NIDOVIRALES lahkossa  Coronavirusten alaperheeksi Wikipedialähteen mukaan) :
 

fredag 13 december 2013

Kertauksena selkärankaisten virusryhmät

Vertebrates (Selkärankaiset viruksen isäntinä)

  • Family: Adenoviridae
      • Genus Mastadenovirus
        Type species: human adenovirus 2
      • Genus Aviadenovirus
        Type species: fowl adenovirus 1

Genus: "African swine fever-like viruses"
Type species: African swine fever virus

  • Family Arenaviridae
      • Genus Arenavirus
        Type species: lymphocytic choriomeningitis virus

Genus Arterivirus
Type species: equine arteritis virus

  • Family Astroviridae
      • Genus Astrovirus
        Type species: human astrovirus 1

Family Birnaviridae
      • Genus Aquabirnavirus
        Type species: infectious pancreatic necrosis virus
      • Genus Avibirnavirus
        Type species: infectious bursal disease virus

Family Bunyaviridae
      • Genus Bunyavirus
        Type species: Bunyamwera virus
      • Genus Hantavirus
        Type species: Hantaan virus
      • Genus Nairovirus
        Type species: Nairobi sheep disease virus
      • Genus Phlebovirus
        Type species: sandfly fever Sicilian virus

The Caliciviridae family include the following genera:
      • Genus Calicivirus
        Type species: vesicular exanthema of swine virus

Family Circoviridae
      • Genus Circovirus
        Type species: chicken anemia virus

      • Genus Coronavirus
        Type species: avian infectious bronchitis virus, CoV, SARS
      • Genus Torovirus
        Type species: Berne virus

Genus Deltavirus
Type species: hepatitis delta virus

Order: Mononegavirales
  • Family Filoviridae
      • Genus: Filovirus
        Type species: Marburg virus

Family Flaviviridae
      • Genus Flavivirus
        Type species: yellow fever virus, Dengue virus.WNV
Genus Flavivirus (type species Yellow fever virus, others include West Nile virus and Dengue Fever)—contains 67 identified human and animal viruses
      • Genus Pestivirus
        Type species: bovine diarrhea virus
      • Genus "Hepatitis C - like viruses"
        Type species: hepatitis C virus

      • Genus Orthohepadnavirus
        Type species: hepatitis B virus
      • Genus Avihepadnavirus
        Type species: duck hepatitis B virus

Family Herpesviridae
    • Subfamily: Alphaherpesvirinae
      • Genus Simplexvirus
        Type species: human herpesvirus 1
      • Genus Varicellovirus
        Type species: human herpesvirus 3
    • Subfamily Betaherpesvirinae
      • Genus Cytomegalovirus
        Type species: human herpesvirus 5
      • Genus Muromegalovirus
        Type species: mouse cytomegalovirus 1
      • Genus Roseolovirus
        Type species: human herpesvirus 6
    • Subfamily Gammaherpesvirinae
      • Genus Lymphocryptovirus
        Type species: human herpesvirus 4
      • Genus Rhadinovirus
        Type species: ateline herpesvirus 2

Family Iridoviridae
      • Genus Ranavirus
        Type species: frog virus 3
      • Genus Lymphocystivirus
        Type species: flounder virus
      • Genus "Goldfish virus -like viruses"
        Type species: goldfish virus 1

Order: Mononegavirales

      • Genus Influenzavirus A, B
        Type species: influenza A virus
      • Genus Influenzavirus C
        Type species: influenza C virus
      • Genus "Thogoto-Like viruses "
        Type species: Thogoto virus

Family Papovaviridae
      • Genus Polyomavirus
        Type species: murine polyomavirus
      • Genus Papillomavirus
        Type species: cottontail rabbit papillomavirus (Shope)

Order: Mononegavirales
Subfamily Paramyxovirinae
Avulavirus
Henipavirus
Morbillivirus
Respirovirus
Rubulavirus
Subfamily Pneumovirinae
Pneumovirus
Metapneumovirus
    • Subfamily Paramyxovirinae
      • Genus Paramyxovirus
        Type species: human parainfluenza virus 1
      • Genus Morbillivirus
        Type species: measles virus
      • Genus Rubulavirus
        Type species: mumps virus
    • Subfamily Pneumovirinae
      • Genus Pneumovirus
        Type species: human respiratory syncytial virus, HRSV
      • Human metapneumovirus

Family Parvoviridae
Familjen omfattar följande släkten:
Subfamilj Parvovirinae
Underfamilj Densovirinae
    • Subfamily Parvovirinae
      • Genus Parvovirus
        Type species: mice minute virus
      • Genus Erythrovirus
        Type species: B19 virus
      • Genus Dependovirus
        Type species: adeno-associated virus 2

      • Genus Enterovirus
        Type species: poliovirus 1
      • Genus Rhinovirus
        Type species: human rhinovirus 1A
      • Genus Hepatovirus
        Type species: hepatitis A virus
      • Genus Cardiovirus
        Type species: encephalomyocarditis virus
      • Genus Aphthovirus
        Type species: foot-and-mouth disease virus O

Family Poxviridae
    • Subfamily Chordopoxvirinae
      • Genus Orthopoxvirus
        Type species: vaccinia virus
      • Genus: Parapoxvirus
        Type species: orf virus
      • Genus Avipoxvirus
        Type species: fowlpox virus
      • Genus Capripoxvirus
        Type species: sheeppox virus
      • Genus Leporipoxvirus
        Type species: myxoma virus
      • Genus Suipoxvirus
        Type species: swinepox virus
      • Genus Molluscipoxvirus
        Type species: Molluscum contagiosum virus
      • Genus Yatapoxvirus
        Type species: Yaba monkey tumor virus

Prions: Agents of Spongiform Encephalopathies
      • Type species: scrapie agent

Family Reoviridae
      • Genus Orthoreovirus
        Type species: reovirus 3
      • Genus Orbivirus
        Type species: bluetongue virus 1
      • Genus Rotavirus
        Type species: simian rotavirus SA11
      • Genus Coltivirus
        Type species: Colorado tick fever virus
      • Genus Aquareovirus
        Type species: golden shiner virus

Family Retroviridae
      • Genus "mammalian type B retroviruses"
        Type species: mouse mammary tumor virus
      • Genus "mammalian type C retroviruses"
        Type species: murine leukemia virus
      • Genus "avian type C retroviruses"
        Type species: avian leukosis virus
      • Genus "type D retroviruses"
        Type species: Mason-Pfizer monkey virus
      • Genus "blv-htlv retroviruses"
        Type species: bovine leukemia virus
      • Genus Lentivirus
        Type species: human immunodeficiency virus 1
      • Genus Spumavirus
        Type species: human spumavirus

Order: Mononegavirales
  • Family Rhabdoviridae
      • Genus Vesiculovirus
        Type species: vesicular stomatitis Indiana virus
      • Genus Lyssavirus
        Type species: rabies virus
      • Genus Ephemerovirus
        Type species: bovine ephemeral fever

Satellites
    • dsDNA Satellites
    • ssRNA Satellites

Family Togaviridae
      • Genus Alphavirus
        Type species: Sindbis virus
      • Genus Rubivirus
        Type species: rubella virus

Unassigned Viruses
Back to list of host categories
Tämä on internetlähde, iso viruskirja

Arenaviruksista , ROBOvirus,

http://www.ncbi.nlm.nih.gov/pubmed/19460307?log$=activity

http://www.ncbi.nlm.nih.gov/pubmed/24068704 

  • LASSA viruksen  infektoimisesta
 http://www.ncbi.nlm.nih.gov/pubmed/23279385
LASSA-kuumeesta ja sen relevanssista
 http://www.smi.se/sjukdomar/lassafeber/
 http://www.who.int/csr/don/2012_04_04/en/

WHO mainitsee kuten SMI.se näistä arnevirusten taudeista vain pahimman eli tuon Lassa- kuumeen. Kaikkihan ne ovat alunperin jyrsijöistä. niitä on paljon kuten jyrsijöitä on paljon, voidaan jakaa  jyrsijöiten mukaan Vanhan maailman(OW) ja Uuden maailman  (NW)  jyrsijöitten viruksiin sekä rekombinantteihin. Lassa- viruksen lyhennys on LASV.
 Ainkin  yhdeksän näistä  viruksista on ihmispatogeenejä. 


 http://www.who.int/csr/disease/lassafever/en/index.html
Replikoitumisesta artikkeli mRNA  ambisense ja sen replikaatio tapahtuu kuten bunyaviruksilla.
http://www.microbiologybytes.com/virology/Arenaviruses.html

torsdag 12 december 2013

Onkohan hantaviruksista jotain uutta tietoa?

HANTA-virus rokotekehittelystä löytyy paljon artikkelia lähteessä
 http://www.ncbi.nlm.nih.gov/pubmed/?term=Hantavirus+vaccine

WHO sanoo näin:
http://www.who.int/ith/diseases/hantavirus/en/

Kerään  olemassa olevaa tietoa taustaksi.
 http://www.smi.se/sjukdomar/hantavirusinfektion/
Jyrsijät( rodents, gnagare)  eivät itse sairastu hantaviruksiin , mutta virus pystyy infektoimaan niitä kroonisesti,  joten niistä välittyy virusta  ihmisiin mm. aerosolin kautta.  
Jyrsijät esiintyvät geografisesti eri alueilla, joten  alueitten mukaan viruksillakin on nimiänsä.
Jyrsijöiden  lahko RODENTIA,
jyrsijäperhe MURIDAE,
alaperheet Murinae, Sigmodontinae,  ja Arvicolinae. .

Puumala virus PUUV  viihtyy jyrsijälajissa Myodes glareolus, Arvicolinae, myyrät, ruotsiksi sorkar, engl. bank voles. http://sv.wikipedia.org/wiki/Sorkar
Tuttu taudin nimi on MYYRÄKUUME, SORKFEBER
http://www.smi.se/sjukdomar/nephropathia-epidemica/

 Klein S L, Calisher C H (2007). Emergence and persistence of  HANTAVIRUSES.
In: Wild life and Emerging Zoonotic Diseases: The Biology, Circumstances and  Consequences of Cross-Species transmission.  Springer 2007 ISBN 978- 3-540- 70961-9.
 http://www.ncbi.nlm.nih.gov/pubmed/17848067

Artikkeli PubMed hauan avulla etsittynä:

  Emergence and persistence of hantaviruses.
Klein SL, Calisher CH.W. Harry Feinstone Department of Molecular Microbiology and Immunology, Johns Hopkins Bloomberg School of Public Health, Baltimore,USA.

TIIVISTELMÄ 

  • Hantavirusinfektioita on tunnistettu satoja vuosia ( tuhannen vuotta), mutta  infektoiva agenssi eristettiin vasta vuonna 1976. Sitten kun Lee kumppaneineen oli eristänyt Hantaan virukseksi nimettyn viruksen (, koska  se oli Koreasta  sen nimisen virran varrelta), voitiin  heidän  käyttämänsä tekniikan avulla  tutkia edelleen  klassisen hantavirussairauden , munuaisoireisiin liittyvän verenvuotokuumeen (HFRS) , etiologiaa. nykyään tiedetään, että sitä voi aiheuttaa mikä tahansa runsaista hantaviruksista. .
Hantaviral diseases have been recognized for hundreds of years but, until 1976, they had not been associated with an infectious agent. When Lee and colleagues isolated what is now known as Hantaan virus, the techniques they introduced allowed further investigations into the etiology of the classical hantavirus disease, hemorrhagic fever with renal syndrome (HFRS), now known to be caused by any of multiple hantaviruses.
  • Kun löydettiin uuden maailman   hantaviruksen aiheuttama keuhko-oireyhtymä (HPS) ja oli havaittu,  että mikä tahansa BUNYAVIRIDAE- perheen HANTA- virussuvun  hantavirus saattoi  aiheuttaa sitäkin, alkoi laajat epidemiologiset, virologiset, molekylääriset, behavioristiset ja ekologiset tutkimukset hantaviruksista.
The discovery of hantavirus pulmonary syndrome (HPS) in the New World, and that it also can be caused by any of multiple hantaviruses (family Bunyaviridae, genus Hantavirus), has opened an entire field of epidemiologic, virologic, molecular, behavioral, and ecologic studies of these viruses. 
  • Näyttää siltä että on liittymää yhden tietyn hantaviruksen ja tietyn isäntänä toimivan jyrsijätyypin kesken. Jotta voitaisiin  vähentää ihmisten riskiä  hantaviruksista infektoitumisiin, on kriittistä ymmärtää  yksittäisten  isäntäjyrsijälajin ja niihin vaikuttavien ekologisten muuttujien idiosynkrasiaa
There appears to be a single hantavirus-single rodent host association, such that understanding the idiosyncrasies of each rodent host species and the ecologic variables that affect them are recognized as critical if we are to reduce human risk for infection.
  •   Otsikon  artikkelissaan kirjoittajat tekevät yhteenvetoa hantaviruksia koskevasta tiedosta ja niiden historiikista, niiden taxonomiasta, tunnistetusta geografisesta esiintymisestä, ekologisista tekijöistä, jotka  vaikuttavat  niissä  pysyviin ja niistä leviäviin hantaviruksiin, jyrsijöitten käyttäytymisesta  mikä vaikuttaa viruksen edelleen   välittymiseen,  isäntätekijöiden vaikutuksesta  hantavirusalttiuteen ja  edelleenvälittymiseen, hantavirusten siirtymisestä jyrsijöistä ihmisiin. he tekevät näistä yhteenvetoa ja  ehdottavat  suuntauksia    tuleviin tutkimuksiin. 
This chapter summarizes what is known about hantaviruses with regard to history of these viruses, their taxonomy, recognized geographical distribution, ecologic factors impacting their maintenance and spread of hantaviruses, effect of rodent behavior on hantavirus transmission, influence of host factors on susceptibility to and transmission of hantaviruses, and transmission of hantaviruses from rodents to humans. In addition, we summarize all these complexities and provide suggestions for future research directions.

lördag 7 december 2013

HIV-1 transframe proteins

p6 p8 p9: Topics by WorldWideScience.org

worldwidescience.org/topicpages/p/p6+p8+p9.html
2013-01-01 .... Refined study of the interaction between HIV-1 p6 late domain and ALIX ..... The 1,580,347 bp genome with its 1,668 protein- coding and 48 RNA genes was sequenced as part of ...... Based on these results, we suggest a role of the transframe protein p6* in regulating HIV-1 PR activity during viral replication.

Kertausta HIV-1 virusrakenteeswta Gag-Pro-Pol

Tarkista:  Gag-Pol fusion proteins
http://www.ncbi.nlm.nih.gov/books/NBK19444/
Kuva 5.(Fig. 5).  
Figure 5. Organization of retroviral Gag, Pro, and Pol proteins.
SITAATTI kuvan tekstistä ( näistä retroviruksista HIV on ihmisvirus)

 Organization of retroviral Gag, Pro, and Pol proteins. All Gag proteins contain poorly conserved MA, CA, and NC sequences and differ further in the number and positions of numerous other cleavage products, as shown. Translation past the 3′end of the Gag-coding sequence results in the synthesis of Gag-Pro-Pol fusion proteins. This occurs by either ribosome frameshifting (fs) or in-frame suppression of a stop codon (is). Note the special case of spumaviruses, where there is little processing and Pro-Pol is expressed from a spliced mRNA. The number of amino acids contained within the Gag and Gag-Pro-Pol proteins (Gag and Pro-Pol in the case of HFV) is indicated at the end of each molecule. Myristate is represented by the wavy lines. (SP) Spacer peptide; (TF) transframe protein; (DU) dUTPase; (PPPY) a proline-rich sequence required later in budding; (MHR) the major homology region of CA.



MYRISTYLAATIO, PALMITYLAATIO, ASETYLAATIO

Amino-terminal Modifications

The Gag proteins of most retroviruses (as well as their Gag-Pro-Pol proteins) are cotranslationally modified at their amino termini by the addition of myristate, which is therefore also present at the amino terminus of MA (Fig. 5). This rare 14-carbon fatty acid is always attached to a terminal glycine, which is encoded by the second codon of gag and exposed after removal of the initiator methionine (Henderson et al. 1983; Wilcox et al. 1987; Schultz et al. 1988).
 Myristate is required for the binding of Gag to the plasma membrane. Replacement of the critical glycine with another amino acid prevents myristylation, and such mutants are invariably defective for particle formation (see, e.g., Rein et al. 1986; Rhee and Hunter 1987; Bryant and Ratner 1990). It should be emphasized, however, that the mere presence of myristate at the amino terminus of a Gag protein is not sufficient for membrane binding (Rhee and Hunter 1990b; J.W. Wills et al. 1991); therefore, flanking amino acid residues must make an essential contribution (Resh 1994).

 Direct evidence for this has been obtained from experiments in which myristylated peptides were used to assess membrane interactions in vitro. These studies demonstrated that the 14 carbons of myristate are not sufficient for strong membrane association, in contrast to palmitylated peptides, which contain 16 carbons that are sufficient for strong membrane association (Peitzsch and McLaughlin 1993). Consequently, myristate is especially well suited for proteins that need to cycle on and off membranes in response to additional factors that affect their binding. Indeed, there are now many examples of myristylated proteins whose release from the membrane is induced by phosphorylation, including the MARCKS protein and pp60c-src (Taniguchi and Maneti 1993; Walker et al. 1993; Resh 1994; McLaughlin and Aderem 1995). Hence, the presence of myristate does not necessarily prevent MA proteins from leaving the membrane to play additional parts in replication when the virus infects a new cell (Chapter 5.

The importance of elements other than myristate for membrane binding is best illustrated by the many retroviruses that replicate without it. These include bovine immunodeficiency virus (BIV; Tobin et al. 1994), equine infectious anemia virus (EIAV; Henderson et al. 1987), ASLV (Schwartz et al. 1983), and visna virus (Sonigo et al. 1985). Among these, the Gag protein of BIV is the only one for which no modification of any type has been found at the amino terminus (Tobin et al. 1994). The others are all blocked for amino-terminal sequencing, and therefore are modified in some way. In the case of ASLV, an acetyl group is added to the amino-terminal methionine (Palmiter et al. 1978), but this 2-carbon fatty acid is too short to provide a stable membrane interaction.

Replacement of acetate, and the methionine to which it is attached, with myristate (i.e., by substituting glycine at the second position to create a site for myristylation) does not interfere with budding or infectivity (Erdie and Wills 1990). In contrast, the structural proteins of certain yeast viruses (e.g., L-A double-stranded virus) exhibit an absolute requirement of N-acetyltransferase for their intracytoplasmic assembly and infectivity (Tercero and Wickner 1992; Tercero et al. 1993). Thus, it remains possible that some retroviruses will be found that require acetylation of Gag."


  • Thomas J Hope 2000 yksityiskohta:, jossa mainitaan GAG-POL FUUSIOPROTEIINIT

 Gag-Pol Precursor

The viral protease(Pro), Integrase (IN) RNase H and reversetranscriptase8 (T) are always  expressed within context of Gag-Pol fusion protein.
The Gag-Pol recursor( p160) is generated by a ribosomal frame shift event, which is triggered by a specific cis-acting RNA motif ( a heptanucleotide secuence p6 followed by s short stem loop in the distal region ogf the Gag RNA). When the ribosomes encounter this motif, they shift approximately 5 % of the time to the pol reading frame without interrupting translation. The frequence of ribosomal frameshicting explains why the Gag and the Gag-Pol precursor are produced at a ratio of approximately 20:1.
During viral maturation, the virally encoded protease (PR) cleaves the Pol polypeptide away from Gag and further digest it to separate the protease (p10), RT (p50), RNase H (p15), and integrase (IN, p31). These cleavages do not all occur "efficiently", for ecample, roughly 50% of RT protein remains linked ti RNase H as a single polypeptide (p65).


torsdag 5 december 2013

LYSSA virus Rabies. WHO tietoa rabieksesta

WHO Bulletin 2.5. 2018
Etelä-Afrikkalaisen valtion Rabiesprofylaksiaohjelma. 
 http://www.who.int/bulletin/volumes/96/5/17-194886-ab/en/




http://www.who.int/features/2012/world_rabies_day/en/index.html
Rabies tappaa vuosittain noin 50 000 ihmistä.  Se katsotaan kuuluvaksi  tavallaan liian  vähäteltyihin maailmantauteihin ja sen estoon sekä hoitoon ja lyssaviruksilta laajemmin    suojaavan rokotteen kehittelyyn odotetaan suurempaa  paneutumista.
 Tosin  toimenpiteet tapauksien ilmetessä   suoritetaan nopeasti ja maailmankartan rabiestilanne on rauhallinen.
 http://www.smittskyddsinstitutet.se/amnesomraden/vaccinationer/vaccinationer-a-o/rabies/
Non-rabies lyssaviruksen Mokolaviruksen suhteen on  pohdintaa rokotteen tarpeellisuudesta, koska kerran  rabies rokote ei anna suojaa tätä toiseen fylogeneettiseen ryhmään kuuluvaa lyssa-virusta kohtaan.
 http://www.plosntds.org/article/info%3Adoi%2F10.1371%2Fjournal.pntd.0002511