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The activation domain of human procarboxypeptidase A2
(ADA2h) aggregates following thermal or chemical denaturation
at acidic pH. The aggregated material contains well-defined
ordered structures with all the characteristics of the
fibrils associated with amyloidotic diseases. Variants
of ADA2h containing a series of mutations designed to increase
the local stability of each of the two helical regions
of the protein have been found to have a substantially
reduced propensity to form fibrils. This arises from a
reduced tendency of the denatured species to aggregate
rather than from a change in the overall stability of the
native state. The reduction in aggregation propensity may
result from an increase in the stability of local relative
to longer range interactions within the polypeptide chain.
These findings show that the intrinsic ability of a protein
to form amyloid can be altered substantially by protein
engineering methods without perturbing significantly its
overall stability or activity. This suggests new strategies
for combating diseases associated with the formation of
aggregated proteins and for the design of novel protein
or peptide therapeutics.
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