Hsp70 interactions with the p53 tumour suppressor protein

The heat shock proteins (HSPs) are encoded by genes whose expression is substantially increased during stress conditions, such as heat shock, alcohol, inhibitors of energy metabolism, heavy metals, oxidative stress, fever or inflammation. During these conditions, HSPs increase cell survival by protecting and disaggregating stress‐labile proteins (Skowyra et al ., 1990), as well as the proteolysis of the damaged proteins (Wickner et al ., 1999). Under non‐stress conditions, HSPs have multiple housekeeping functions, such as folding and translocating newly synthesized proteins, activation of specific regulatory proteins, including transcription factors, replication proteins and kinases, protein degradation, protein signalling, including steroid hormone activation and tumour immunogenicity, and antigen presentation (for reviews see Helmbrecht et al ., 2000; Jolly and Morimoto, 2000). This broad spectrum of functions gave rise to the term ‘molecular chaperone’, an entity that acts to assist other proteins folding and maturating in the cell. It should also be emphasized that not all HSPs are molecular chaperones and not all chaperones are HSPs (Ellis and Hartl, 1999). HSPs are designated nomenclature according to their approximate molecular weight, e.g. the 70 kDa HSP is known as the molecular chaperone Hsp70. The 70 kDa heat shock‐related proteins comprise a family of highly conserved molecular chaperones that regulate a wide variety of cellular processes during normal and stress conditions (Boorstein et al ., 1994). Hsp70 is one of the most abundant of these proteins, accounting for as much as 1–2% of total cellular protein (Herendeen et al ., 1979). In humans, there are at least 11 distinct genes that code for Hsp70 isoforms, which are located on several different chromosomes (Tavaria et al ., 1996). The major, constitutively expressed hsp70 isoform is called hsc70 (gene product known as the clathrin‐uncoating ATPase or Hsp73) (Welch, 1992). The transcription of inducible forms of hsp70 or hsp72 are under …

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