Mark A Lemmon, Kathryn M Ferguson, Joseph Schlessinger  Cell 

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PH Domains: Diverse Sequences with a Common Fold Recruit Signaling Molecules to the Cell Surface  Mark A Lemmon, Kathryn M Ferguson, Joseph Schlessinger  Cell  Volume 85, Issue 5, Pages 621-624 (May 1996) DOI: 10.1016/S0092-8674(00)81022-3

Figure 1 Structures of PH and PTB Domains Ribbon representations of (A) the PLCδ1 PH domain with bound Ins(1,4,5)P3 (Ferguson et al. 1995a) and (B) the Shc PH/PTB domain with bound NGF receptor (TrkA) phosphopeptide (Zhou et al. 1995) in the same orientation. The bound ligands are colored grey, with their phosphate groups in red. (C) An overlay of the N-terminal pleckstrin PH domain (colored blue) and the Shc PH/PTB domain (colored yellow), illustrating the extent to which the structures of the core backbone regions of the β sandwich are similar (r.m.s. deviation of 1.9 Å). Figures (B) and (C) were kindly provided by M. Zhou and S. Fesik. The IRS-1 PTB domain is presented in Figure 2 of Eck et al., 1996. Cell 1996 85, 621-624DOI: (10.1016/S0092-8674(00)81022-3)

Figure 2 Both PTB/PH and PH Domains are Involved in Recruitment to the Membrane Surface (A) PLCδ1 is anchored by its PH domain to membranes that contain its substrate, PtdIns(4,5)P2 (PIP2), permitting processive hydrolysis (high activity). Accumulating InsP3 (IP3), produced by the enzyme, competes with PIP2 for binding to the PH domain. PIP2 hydrolysis by the unanchored enzyme will be less efficient, requiring dissociation from and reassociation with the membrane (low activity) (see text). (B) Shc is recruited to the membrane surface by binding of its PTB/PH domain to a juxtamembraneous tyrosine phosphorylation site in activated NGFR. Shc is phosphorylated by the activated receptor. The SH2 domain of Grb2 then binds to phosphorylated Shc. Since the SH3 domains of Grb2 are bound to proline-rich regions in the C-terminal tail of Sos, Sos itself is thus recruited to the membrane surface. Grb2/Sos recruitment also involves interactions between the Sos PH domain and the membrane surface (see text). Cell 1996 85, 621-624DOI: (10.1016/S0092-8674(00)81022-3)

Figure 3 Similar Variable Loops of PLCδ-PH and Shc PTB/PH are involved in Ligand Binding (A) The structure of PLCδ-PH, viewed down the long axis of the C-terminal α helix. Elements of secondary structure are labeled, and the variable loops 1 (β1/β2), 2 (β3/β4), and 3 (β6/β7) are labeled (VL-1 to VL-3), and all colored gold. These variable loops are all involved in interactions with phosphate groups of the bound Ins(1,4,5)P3 (Ferguson et al. 1995a). (B) The Shc PH/PTB domain is shown in the same orientation as the PH domain in (A). Elements of secondary structure are labeled, with the designation of β2 and β2' reversed compared with Zhou et al. 1995 to stress that β2 is part of the β sandwich. The three variable loops (β1/β2, β3/β4, and β6/β7) are all colored gold, and are labeled VL-1 to VL-3. Variable loop 2 (β3/β4) is very short in this domain, and does not interact with the ligand. Variable loop 1 (β1/β2) is very long, and includes β1', β2', and α2. The phosphate group of the TrkA phosphopeptide interacts with basic groups in both variable loop 1 (between β1' and α2) and variable loop 3 (β3/β4). The remainder of the peptide binds between the C-terminal α helix (α2) and strand β5. This figure was kindly generated by M. Zhou and S. Fesik. Cell 1996 85, 621-624DOI: (10.1016/S0092-8674(00)81022-3)