Negative thermal expansibility change for dissociation of lysozyme variant amyloid protofibril

A disulfide‐deficient variant of hen lysozyme, 0SS, is known to form an amyloid protofibril spontaneously, and to dissociate into monomers at high hydrostatic pressure. We carried out native PAGE at various temperatures (20–35°C) and pressures (0.1–200 MPa), to characterize the dissociation equilibr...

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Vydané v:Electrophoresis Ročník 36; číslo 6; s. 893 - 901
Hlavní autori: Ishiguro, Ryo, Matsuo, Hiroshi, Kameyama, Keiichi, Tachibana, Hideki, Fujisawa, Tetsuro
Médium: Journal Article
Jazyk:English
Vydavateľské údaje: Germany Blackwell Publishing Ltd 01.03.2015
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ISSN:0173-0835, 1522-2683, 1522-2683
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Abstract A disulfide‐deficient variant of hen lysozyme, 0SS, is known to form an amyloid protofibril spontaneously, and to dissociate into monomers at high hydrostatic pressure. We carried out native PAGE at various temperatures (20–35°C) and pressures (0.1–200 MPa), to characterize the dissociation equilibrium of disulfide‐deficient variant of hen lysozyme amyloid protofibril. Based on the density profiles, the partial molar volume and thermal expansibility changes for dissociation, ΔvD and ΔeD, were obtained to be −74 cm3/mol at 25°C and −2.3 cm3 mol−1 K−1, respectively. The dissociation of amyloid fibril destroys the cross β‐structure, and such conformational destruction in native protein fold rarely accompanies negative thermal expansibility change. We discussed the negative thermal expansibility change in terms of hydration and structural packing of the amyloid protofibril.
AbstractList A disulfide-deficient variant of hen lysozyme, 0SS, is known to form an amyloid protofibril spontaneously, and to dissociate into monomers at high hydrostatic pressure. We carried out native PAGE at various temperatures (20-35 degree C) and pressures (0.1-200 MPa), to characterize the dissociation equilibrium of disulfide-deficient variant of hen lysozyme amyloid protofibril. Based on the density profiles, the partial molar volume and thermal expansibility changes for dissociation, Delta v sub(D) and Delta e sub(D), were obtained to be -74 cm super(3)/mol at 25 degree C and -2.3 cm super(3) mol super(-1) K super(-1), respectively. The dissociation of amyloid fibril destroys the cross beta -structure, and such conformational destruction in native protein fold rarely accompanies negative thermal expansibility change. We discussed the negative thermal expansibility change in terms of hydration and structural packing of the amyloid protofibril.
A disulfide‐deficient variant of hen lysozyme, 0SS, is known to form an amyloid protofibril spontaneously, and to dissociate into monomers at high hydrostatic pressure. We carried out native PAGE at various temperatures (20–35°C) and pressures (0.1–200 MPa), to characterize the dissociation equilibrium of disulfide‐deficient variant of hen lysozyme amyloid protofibril. Based on the density profiles, the partial molar volume and thermal expansibility changes for dissociation, Δ v D and Δ e D , were obtained to be −74 cm 3 /mol at 25°C and −2.3 cm 3 mol −1 K −1 , respectively. The dissociation of amyloid fibril destroys the cross β‐structure, and such conformational destruction in native protein fold rarely accompanies negative thermal expansibility change. We discussed the negative thermal expansibility change in terms of hydration and structural packing of the amyloid protofibril.
A disulfide-deficient variant of hen lysozyme, 0SS, is known to form an amyloid protofibril spontaneously, and to dissociate into monomers at high hydrostatic pressure. We carried out native PAGE at various temperatures (20-35°C) and pressures (0.1-200 MPa), to characterize the dissociation equilibrium of disulfide-deficient variant of hen lysozyme amyloid protofibril. Based on the density profiles, the partial molar volume and thermal expansibility changes for dissociation, ΔvD and ΔeD , were obtained to be -74 cm(3) /mol at 25°C and -2.3 cm(3) mol(-1) K(-1) , respectively. The dissociation of amyloid fibril destroys the cross β-structure, and such conformational destruction in native protein fold rarely accompanies negative thermal expansibility change. We discussed the negative thermal expansibility change in terms of hydration and structural packing of the amyloid protofibril.A disulfide-deficient variant of hen lysozyme, 0SS, is known to form an amyloid protofibril spontaneously, and to dissociate into monomers at high hydrostatic pressure. We carried out native PAGE at various temperatures (20-35°C) and pressures (0.1-200 MPa), to characterize the dissociation equilibrium of disulfide-deficient variant of hen lysozyme amyloid protofibril. Based on the density profiles, the partial molar volume and thermal expansibility changes for dissociation, ΔvD and ΔeD , were obtained to be -74 cm(3) /mol at 25°C and -2.3 cm(3) mol(-1) K(-1) , respectively. The dissociation of amyloid fibril destroys the cross β-structure, and such conformational destruction in native protein fold rarely accompanies negative thermal expansibility change. We discussed the negative thermal expansibility change in terms of hydration and structural packing of the amyloid protofibril.
A disulfide‐deficient variant of hen lysozyme, 0SS, is known to form an amyloid protofibril spontaneously, and to dissociate into monomers at high hydrostatic pressure. We carried out native PAGE at various temperatures (20–35°C) and pressures (0.1–200 MPa), to characterize the dissociation equilibrium of disulfide‐deficient variant of hen lysozyme amyloid protofibril. Based on the density profiles, the partial molar volume and thermal expansibility changes for dissociation, ΔvDand ΔeD, were obtained to be −74 cm³/mol at 25°C and −2.3 cm³mol⁻¹K⁻¹, respectively. The dissociation of amyloid fibril destroys the cross β‐structure, and such conformational destruction in native protein fold rarely accompanies negative thermal expansibility change. We discussed the negative thermal expansibility change in terms of hydration and structural packing of the amyloid protofibril.
A disulfide-deficient variant of hen lysozyme, 0SS, is known to form an amyloid protofibril spontaneously, and to dissociate into monomers at high hydrostatic pressure. We carried out native PAGE at various temperatures (20-35°C) and pressures (0.1-200 MPa), to characterize the dissociation equilibrium of disulfide-deficient variant of hen lysozyme amyloid protofibril. Based on the density profiles, the partial molar volume and thermal expansibility changes for dissociation, ΔvD and ΔeD , were obtained to be -74 cm(3) /mol at 25°C and -2.3 cm(3) mol(-1) K(-1) , respectively. The dissociation of amyloid fibril destroys the cross β-structure, and such conformational destruction in native protein fold rarely accompanies negative thermal expansibility change. We discussed the negative thermal expansibility change in terms of hydration and structural packing of the amyloid protofibril.
A disulfide‐deficient variant of hen lysozyme, 0SS, is known to form an amyloid protofibril spontaneously, and to dissociate into monomers at high hydrostatic pressure. We carried out native PAGE at various temperatures (20–35°C) and pressures (0.1–200 MPa), to characterize the dissociation equilibrium of disulfide‐deficient variant of hen lysozyme amyloid protofibril. Based on the density profiles, the partial molar volume and thermal expansibility changes for dissociation, ΔvD and ΔeD, were obtained to be −74 cm3/mol at 25°C and −2.3 cm3 mol−1 K−1, respectively. The dissociation of amyloid fibril destroys the cross β‐structure, and such conformational destruction in native protein fold rarely accompanies negative thermal expansibility change. We discussed the negative thermal expansibility change in terms of hydration and structural packing of the amyloid protofibril.
Author Kameyama, Keiichi
Tachibana, Hideki
Fujisawa, Tetsuro
Matsuo, Hiroshi
Ishiguro, Ryo
Author_xml – sequence: 1
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  givenname: Hiroshi
  surname: Matsuo
  fullname: Matsuo, Hiroshi
  organization: Niigata Industrial Creation Organization, Niigata, Japan
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  givenname: Keiichi
  surname: Kameyama
  fullname: Kameyama, Keiichi
  organization: Department of Chemistry and Biomolecular Science, Faculty of Engineering, Gifu University, Gifu, Japan
– sequence: 4
  givenname: Hideki
  surname: Tachibana
  fullname: Tachibana, Hideki
  organization: Graduate School of Biology-Oriented Science and Technology, Kinki University, Wakayama, Japan
– sequence: 5
  givenname: Tetsuro
  surname: Fujisawa
  fullname: Fujisawa, Tetsuro
  email: fujisawa@gifu-u.ac.jp
  organization: Department of Chemistry and Biomolecular Science, Faculty of Engineering, Gifu University, Gifu, Japan
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CitedBy_id crossref_primary_10_1016_j_ab_2022_115035
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Keywords Dissociation equilibrium
High-pressure native polyacrylamide gel electro-phoresis
Thermal expansibility
Partial molar volume
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Snippet A disulfide‐deficient variant of hen lysozyme, 0SS, is known to form an amyloid protofibril spontaneously, and to dissociate into monomers at high hydrostatic...
A disulfide-deficient variant of hen lysozyme, 0SS, is known to form an amyloid protofibril spontaneously, and to dissociate into monomers at high hydrostatic...
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StartPage 893
SubjectTerms amyloid
Amyloid - chemistry
Amyloid - metabolism
Animals
Chickens
Density
Destruction
dissociation
Dissociation equilibrium
Electrophoresis
Electrophoresis, Polyacrylamide Gel
hens
high pressure treatment
High-pressure native polyacrylamide gel electro-phoresis
Hot Temperature
Hydration
Hydrostatic pressure
Lysozyme
Molar volume
Monomers
Muramidase - chemistry
Muramidase - metabolism
Partial molar volume
polyacrylamide gel electrophoresis
Protein Unfolding
Proteins
temperature
Thermal expansibility
Thermodynamics
Title Negative thermal expansibility change for dissociation of lysozyme variant amyloid protofibril
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