PrionDB: Extraction of mutation data from the literature

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This data was extracted from Medline abstracts and full texts (when available) in an automated manner.

The table below describes different point mutations at a given position and provides links to other documents. The sentence(s) where the point mutations in PRIO_HUMAN at position 105 were found are listed after the table.


Point mutations at position P105 in PRIO_HUMAN

ProteinPRIO_HUMAN (P04156)    Gene: PRNP    (other point mutations)Swiss-Prot
Cross-reference table
Family page
PositionP105
General numbering (PrionDB) -
DomainNot determined
Family alignments Mammalian prion proteins
Prion proteins (PRP, PRNP)
Other point mutations at the same position Position 105 in Mammalian prion proteins family
Position 105 in Prion proteins (PRP, PRNP) family
Reference #1Yamada M, Itoh Y, Inaba A, Wada Y, Takashima M, Satoh S, Kamata T, Okeda R, Kayano T, Suematsu N, Kitamoto T, Otomo E, Matsushita M, Mizusawa H
Neurology 1999 Jul 13;53(1):181-8.
Medline
Text sourceHTML and PDF full texts
Point mutationP105L (True positive)
Reference #2Zuegg J, Gready JE
Biochemistry 1999 Oct 19;38(42):13862-76.
Medline
Text sourceHTML and PDF full texts
Point mutationP105L (True positive)
Reference #3Tagliavini F, Lievens PM, Tranchant C, Warter JM, Mohr M, Giaccone G, Perini F, Rossi G, Salmona M, Piccardo P, Ghetti B, Beavis RC, Bugiani O, Frangione B, Prelli F
J Biol Chem 2001 Feb 23;276(8):6009-15.
Medline
Text sourceHTML full text
Point mutationP105L (True positive)
Reference #4Piccardo P, Liepnieks JJ, William A, Dlouhy SR, Farlow MR, Young K, Nochlin D, Bird TD, Nixon RR, Ball MJ, DeCarli C, Bugiani O, Tagliavini F, Benson MD, Ghetti B
Am J Pathol 2001 Jun;158(6):2201-7.
Medline
Text sourceHTML full text
Point mutationP105L (True positive)
Reference #5Spielhaupter C, Schatzl HM
J Biol Chem 2001 Nov 30;276(48):44604-12.
Medline
Text sourceHTML full text
Point mutationP105L (True positive)
Reference #6Kovacs GG, Trabattoni G, Hainfellner JA, Ironside JW, Knight RS, Budka H
J Neurol 2002 Nov;249(11):1567-82.
Medline
Text sourceabstract
Point mutationP105L (True positive)
Reference #7Mastrangelo P, Serpell L, Dafforn T, Lesk A, Fraser P, Westaway D
FEBS Lett 2002 Dec 4;532(1-2):21-6.
Medline
Text sourceHTML and PDF full texts
Point mutationP105L (True positive)
Reference #8Cohen E, Taraboulos A
EMBO J 2003 Feb 3;22(3):404-17.
Medline
Text sourceHTML full text
Point mutationP105L (Not yet checked)
Reference #9Harris DA
Br Med Bull 2003;66:71-85.
Medline
Text sourceHTML full text
Point mutationP105L (Not yet checked)
Reference #10Gambetti P, Kong Q, Zou W, Parchi P, Chen SG
Br Med Bull 2003;66:213-39.
Medline
Text sourceHTML full text
Point mutationP105T (True positive)
Reference #11Apetri AC, Surewicz K, Surewicz WK
J Biol Chem 2004 Apr 23;279(17):18008-14. Epub 2004 Feb 2.
Medline
Text sourceHTML full text
Point mutationP105L (True positive)
Reference #12Ishida C, Okino S, Kitamoto T, Yamada M
J Neurol Neurosurg Psychiatry 2005 Mar;76(3):325-9.
Medline
Text sourceHTML full text
Point mutationP105L (Not yet checked)
Reference #13Tateishi J, Kitamoto T, Hoque MZ, Furukawa H
Neurology 1996 Feb;46(2):532-7.
Medline
Text sourceabstract
Point mutationP105L (True positive)
Reference #14Parchi P, Chen SG, Brown P, Zou W, Capellari S, Budka H, Hainfellner J, Reyes PF, Golden GT, Hauw JJ, Gajdusek DC, Gambetti P
Proc Natl Acad Sci U S A 1998 Jul 7;95(14):8322-7.
Medline
Text sourceHTML full text
Point mutationP105L (Not yet checked)
Reference #15Yamada M, Tomimitsu H, Yokota T, Tomi H, Sunohara N, Mukoyama M, Itoh Y, Suematsu N, Otomo E, Okeda R, Matsushita M, Mizusawa H
Neurology 1999 Jan 15;52(2):260-5.
Medline
Text sourceHTML full text
Point mutationP105L (Not yet checked)

Relevant sentences

Reference #1 (Yamada M et al.): P105L
  • Alert me when: new articles cite this article Download to Citation Manager Neurology 1999 ; 53:181 © 1999 American Academy of Neurology ------------------------------------------------------------------------ Articles An inherited prion disease with a PrP P105L mutation Clinicopathologic and PrP heterogeneity M

  • 1 A variant form of GSS associated with a missense mutation at codon 105 (P105L ; GSS105) was first described in 1993 in Japanese patients

  • As for the allelic distribution of the codon 129 polymorphism , the Val codon was coupled with the P105L mutation

  • Kitamoto T , Amano N , Terao Y , et al. A new inherited prion disease (PrP-P105L mutation) showing spastic paraparesis

  • A case of variant Gerstmann-Sträussler-Scheinker disease with the mutation of codon P105L

  • An inherited prion disease with a PrP P105L mutation Clinicopathologic and PrP heterogeneity M

  • NEUROLOGY 1999 ; 53:181­188 Human prion diseases are classified into three categories: infectious prion diseases , inherited prion diseases , and prion diseases of unknown etiology.1 Inherited prion diseases are found to be associated with mutations of the prion protein (PrP) gene , and they present with several clinical phenotypes , including classic and variant forms of Gerstmann­Stra¨ussler­Scheinker disease (GSS) , familial Creutzfeldt­Jakob disease (CJD) , and familial fatal insomnia.1 A variant form of GSS associated with a missense mutation at codon 105 (P105L ; GSS105) was first described in 1993 in Japanese patients.2 , 3 Clinically , GSS105 has been reported to be characterized by spastic paraparesis and dementia , 2 , 3 and is distinct from the classic form of GSS associated with a missense mutation at codon 102 (P102L) , which is characterized by cerebellar ataxia and dementia.4 , 5 GSS105 has been referred to as the 'spastic paraparesis' type.3 Recently we experienced an autopsy case of GSS105 from a Japanese family in which we described the original patient.2 , 6 Despite the identical codon 105 mutation and codon 129 polymorphism of the PrP gene , we found remarkable differences in clinical and neuropathologic phenotypes , and detergentinsoluble PrP fragments between the family members

Reference #2 (Zuegg J et al.): P105L
  • The amino acid residues in black boxes are mutation sites known to be associated with inherited forms of PrP diseases in humans [CJD , D178N:129V (3) , V180I (3) , T183A (3) , E200K (3) , R208H (3) , V210I (3) , and M232R (3) ; GSS , P102L (3) , P105L (3) , A117V (3) , Y145Stop (3) , H187R (14) , F198S (3) , D202N (13) , Q212P (13) , and Q217R (3) ; FFI , D178N:129M (3) ; schizophrenia , N171S (12) ] , while in light gray boxes residues involved in some polymorphisms influencing these diseases are shown [M129V (3) , E219K (11) ]

Reference #3 (Tagliavini F et al.): P105L
  • INTRODUCTION (image)TOP (image)ABSTRACT (image)INTRODUCTION (image)EXPERIMENTAL PROCEDURES (image)RESULTS (image)DISCUSSION (image)REFERENCES Gerstmann-Sträussler-Scheinker disease (GSS)1 is an adult-onset neurodegenerative disorder (1 , 2 ) that is inherited as an autosomal dominant trait and segregates with variant genotypes resulting from the combination of a pathogenic mutation (P102L , P105L , A117V , F198S , D202N , Q212P , and Q217R) and a common polymorphism at codon 129 (Met / Val) in the prion protein (PrP) gene (PRNP) (3-9 )

Reference #4 (Piccardo P et al.): P105L
  • 3 GSS is caused by mutations P102L , P105L , A117V , G131V , F198S , D202N , Q212P , and Q217R in PRNP

Reference #5 (Spielhaupter C et al.): P105L
  • The location of the putative SH3 recognition motif XPXXP is indicated by an asterisk , and the two known pathologic mutations P102L and P105L in this region are indicated with arrowheads

  • Grb2 coprecipitates with wild type PrP-(90-231) (lane 9) as well as with the constructs bearing the GSS point mutations P102L (lane 10) and P105L (lane 11)

  • Such a site is present in wild type PrP at position 101-105 , but absent in two mutations leading to Gerstmann-Sträussler-Scheinker syndrome (GSS) in humans (P102L and P105L , respectively) (1 )

  • P102L and P105L both result in GSS with slightly different clinicopathologic patterns (50 )

Reference #6 (Kovacs GG et al.): P105L
  • P105L , D178N-129M , T183A)

Reference #7 (Mastrangelo P et al.): P105L
  • In the case of GSS it was not possible to undertake meaningful analyses for the causative P102L , P105L and A117V mutations as these are located within an area of PrP that has no cognate in Dpl [16 ]

Reference #8 (Cohen E et al.): P105L
  • Because there is an abundance of prolines in PrP , and since two proline substitutions (P102L and P105L) are linked with familial GSS (Hsiao et al. , 1989 ; Yamazaki et al. , 1999 ) , we wondered whether cis-trans isomerization of peptidylprolyl bonds might participate either in the folding of PrP C or in its disposal

  • (B) Model for the generation of misfolded PrP by wtPrP and by the P102L and P105L mutants

  • Upper panel: in all cases the majority of both wild-type and mutant (P102L and P105L) PrP is formed with predominantly trans X-Pro (or trans X-Leu) peptide bonds (which are energetically favored)

  • The substitutions P102L and P105L are linked , separately , to familial GSS (Hsiao et al. , 1989 ; Yamazaki et al. , 1999 ) , but the etiology is poorly understood

  • Although this could apply to any of the X-Pro bonds in mature wild-type huPrP , it is tempting to focus on P102 and P105 , the two proline residues that are linked to familial GSS [P102L (Hsiao et al. , 1989 ) ; P105L (Yamazaki et al. , 1999 )]

  • It is thus plausible that P102L- and P105L-PrP are sometimes (even if rarely) synthesized with cis X-Leu bonds at positions 102 or 105

  • (i) It forecasts that while a small number of P102L or P105L PrP molecules may acquire prion-like properties , the vast majority of these mutant molecules will form in the native conformation

Reference #9 (Harris D et al.): P105L
  • However , mutations within or near the transmembrane domain , including A117V and P105L mutations linked to GSS as well as several `artificial’ mutations not seen in human patients , increase the relative proportion of CtmPrP to as much as 20-30% of the total59 , 61 , 63 -65

Reference #11 (Apetri AC et al.): P105L
  • A similar behavior would be expected for prion protein variants P105L and , likely , A117V

Reference #12 (Ishida C et al.): P105L
  • Methods: Eight patients with prion diseases were examined: three with sporadic Creutzfeldt-Jakob disease (sCJD) , two with dural graft associated CJD (dCJD) , one with Gerstmann-Sträussler-Scheinker disease (GSS) with a PrP P102L mutation (GSS102) , and two with a P105L mutation (GSS105)

  • METHODS (image)TOP (image)ABSTRACT (image)METHODS (image)RESULTS (image)DISCUSSION (image)REFERENCES Patients We studied eight patients with necropsy confirmed prion diseases: three with sCJD , two with dCJD , 11 , 12 one with GSS with a PrP P102L mutation (GSS102) , and two with a PrP P105L mutation (GSS105) (table 1(image) )

  • (D) Patient 8 with GSS having a P105L mutation showed only plaque type PrP deposits

  • Yamada M , Itoh Y , Inaba A , et al. An inherited prion disease with a PrP P105L mutation: clinicopathologic and PrP heterogeneity

Reference #13 (Tateishi J et al.): P105L
  • Hereditary cases with P102L , P105L , A117V , Y145stop , and insertions had different features but all demonstrated a long clinical duration and the presence of PrP plaques

Reference #14 (Parchi P et al.): P105L
  • Mizusawa An inherited prion disease with a PrP P105L mutation: Clinicopathologic and PrP heterogeneity Neurology , July 1 , 1999 ; 53(1): 181 - 181

Reference #15 (Yamada M et al.): P105L
  • We also compared the findings of GSS102 with those of another type of GSS associated with a missense mutation at codon 105 (P105L) of the PrP gene (GSS105)

Reference #10 (Gambetti P et al.): P105T
  • Q160Stop-129M103 , E196K-129M101 , V203I-129M101 , T188K103 , and probably P238S104 , T188R103 , 104 , and P105T (http: / / www.mad-cow.org / prion_point_ mutations.html ) display some signs of neurodegeneration


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F.Horn (priondbcmbi.ru.nl), 22-Aug-2005