Three protein kinase structures define a common motif

Slides:



Advertisements
Similar presentations
Structure of the Rho Family GTP-Binding Protein Cdc42 in Complex with the Multifunctional Regulator RhoGDI  Gregory R. Hoffman, Nicolas Nassar, Richard.
Advertisements

Crystal Structure of the Tandem Phosphatase Domains of RPTP LAR
Crystal Structure of M. tuberculosis ABC Phosphate Transport Receptor
Wenqing Xu, Amish Doshi, Ming Lei, Michael J Eck, Stephen C Harrison 
Kristopher Josephson, Naomi J. Logsdon, Mark R. Walter  Immunity 
Crystal structure of mammalian purple acid phosphatase
Volume 96, Issue 3, Pages (February 1999)
Volume 14, Issue 3, Pages (March 2006)
Chaperone-Assisted Crystallography with DARPins
Volume 9, Issue 12, Pages (December 2001)
Regulation of Protein Kinases
Crystal Structure of an Inactive Akt2 Kinase Domain
Crystal Structure of the MHC Class I Homolog MIC-A, a γδ T Cell Ligand
Structure of CheA, a Signal-Transducing Histidine Kinase
Volume 13, Issue 4, Pages (April 2005)
Volume 4, Issue 5, Pages (November 1999)
Volume 9, Issue 6, Pages (June 2002)
Volume 6, Issue 10, Pages (October 1998)
Crystal Structure of a Y-Family DNA Polymerase in Action
Crystal Structure of the MazE/MazF Complex
Volume 3, Issue 2, Pages (February 1995)
Crystal Structure of the λ Repressor C-Terminal Domain Provides a Model for Cooperative Operator Binding  Charles E. Bell, Paolo Frescura, Ann Hochschild,
Regulation of protein phosphatase-1
Crystal Structure of β-Arrestin at 1.9 Å
Crystal Structure of the TAO2 Kinase Domain
Structure of the Tie2 RTK Domain
RIα Subunit of PKA Structure
Daniel Peisach, Patricia Gee, Claudia Kent, Zhaohui Xu  Structure 
Qian Steven Xu, Rebecca B. Kucera, Richard J. Roberts, Hwai-Chen Guo 
Volume 14, Issue 5, Pages (May 2006)
Edith Schlagenhauf, Robert Etges, Peter Metcalf  Structure 
Volume 3, Issue 5, Pages (May 1999)
Jonathan Goldberg, Angus C Nairn, John Kuriyan  Cell 
David Jeruzalmi, Mike O'Donnell, John Kuriyan  Cell 
Volume 15, Issue 2, Pages (February 2007)
What Does It Take to Bind CAR?
Volume 12, Issue 6, Pages (June 2004)
Volume 15, Issue 6, Pages (December 2001)
Tianjun Zhou, Liguang Sun, John Humphreys, Elizabeth J. Goldsmith 
Volume 11, Issue 12, Pages (December 2003)
Structure of the Rho Family GTP-Binding Protein Cdc42 in Complex with the Multifunctional Regulator RhoGDI  Gregory R. Hoffman, Nicolas Nassar, Richard.
The first step in sugar transport: crystal structure of the amino terminal domain of enzyme I of the E. coli PEP: sugar phosphotransferase system and.
David Jeruzalmi, Mike O'Donnell, John Kuriyan  Cell 
Volume 11, Issue 2, Pages (February 2003)
Tertiary Structure of Destrin and Structural Similarity between Two Actin-Regulating Protein Families  H Hatanaka, K Ogura, K Moriyama, S Ichikawa, I.
The Conformational Plasticity of Protein Kinases
The Active Conformation of the PAK1 Kinase Domain
Solution Structure of a TBP–TAFII230 Complex
E.Radzio Andzelm, J Lew, S Taylor  Structure 
Active and Inactive Protein Kinases: Structural Basis for Regulation
Active and Inactive Protein Kinases: Structural Basis for Regulation
Hideki Kusunoki, Ruby I MacDonald, Alfonso Mondragón  Structure 
OmpT: Molecular Dynamics Simulations of an Outer Membrane Enzyme
Volume 6, Issue 8, Pages (August 1998)
Volume 12, Issue 11, Pages (November 2004)
Pingwei Li, Gerry McDermott, Roland K. Strong  Immunity 
Peter König, Rafael Giraldo, Lynda Chapman, Daniela Rhodes  Cell 
Structure of an IκBα/NF-κB Complex
Kristopher Josephson, Naomi J. Logsdon, Mark R. Walter  Immunity 
Volume 13, Issue 5, Pages (May 2005)
The Structure of Sortase B, a Cysteine Transpeptidase that Tethers Surface Protein to the Staphylococcus aureus Cell Wall  Yinong Zong, Sarkis K Mazmanian,
The Structure of T. aquaticus DNA Polymerase III Is Distinct from Eukaryotic Replicative DNA Polymerases  Scott Bailey, Richard A. Wing, Thomas A. Steitz 
Crystal Structure of β-Arrestin at 1.9 Å
Structural Basis for Activation of ARF GTPase
Structure of GABARAP in Two Conformations
Tertiary structure of an immunoglobulin-like domain from the giant muscle protein titin: a new member of the I set  Mark Pfuhl, Annalisa Pastore  Structure 
Volume 13, Issue 4, Pages (April 2005)
Morgan Huse, Ye-Guang Chen, Joan Massagué, John Kuriyan  Cell 
The Structure of the MAP2K MEK6 Reveals an Autoinhibitory Dimer
Volume 95, Issue 2, Pages (October 1998)
Presentation transcript:

Three protein kinase structures define a common motif Susan Serota Taylor, Elzbieta Radzio-Andzelm  Structure  Volume 2, Issue 5, Pages 345-355 (May 1994) DOI: 10.1016/S0969-2126(00)00036-8

Figure 1 Ribbon diagrams comparing (a) MAPK, (b) PKA and (c) Cdk2 viewed with the small lobe towards the top. In each structure the amino-terminal segment is shown in purple and the remainder in pink. Peptide insertions are shown in yellow. The inhibitor peptide co-crystallized with the C-subunit of PKA is shown in red. MgATP is shown in green with the magnesium ions indicated as crosses. The conserved buried ion pair corresponding to Arg280 and Glu208 in PKA is shown in each structure with the side chains in yellow. In MAPK (a), the side chains of Arg146, Arg170, Arg65 and Arg68, which are potential ligands for the phosphate, are indicated in yellow with the side chains of the phosphorylation sites, Tyr185 and Thr183 in white. Also shown in yellow is the ion pair Arg299 and Glu195. In the C-subunit of PKA (b), the side chains of Arg165, Lys189 and His87 are shown in yellow and phosphorylated Thr197 is shown in white. The position of the single amino acid insert in the linker region of PKA, Gly125, is also indicated in yellow. The detergent molecule that occupies the myristylation site is shown as a yellow CPK structure on the left. In Cdk2 (c), the side chains of the two phosphorylation sites are shown with Thr160 in white and Tyr15 in yellow. Also shown in yellow are Arg150 and Arg126, potential ligands for the phosphate, and the buried ion pair, Arg274 and Glu172. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 1 Ribbon diagrams comparing (a) MAPK, (b) PKA and (c) Cdk2 viewed with the small lobe towards the top. In each structure the amino-terminal segment is shown in purple and the remainder in pink. Peptide insertions are shown in yellow. The inhibitor peptide co-crystallized with the C-subunit of PKA is shown in red. MgATP is shown in green with the magnesium ions indicated as crosses. The conserved buried ion pair corresponding to Arg280 and Glu208 in PKA is shown in each structure with the side chains in yellow. In MAPK (a), the side chains of Arg146, Arg170, Arg65 and Arg68, which are potential ligands for the phosphate, are indicated in yellow with the side chains of the phosphorylation sites, Tyr185 and Thr183 in white. Also shown in yellow is the ion pair Arg299 and Glu195. In the C-subunit of PKA (b), the side chains of Arg165, Lys189 and His87 are shown in yellow and phosphorylated Thr197 is shown in white. The position of the single amino acid insert in the linker region of PKA, Gly125, is also indicated in yellow. The detergent molecule that occupies the myristylation site is shown as a yellow CPK structure on the left. In Cdk2 (c), the side chains of the two phosphorylation sites are shown with Thr160 in white and Tyr15 in yellow. Also shown in yellow are Arg150 and Arg126, potential ligands for the phosphate, and the buried ion pair, Arg274 and Glu172. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 1 Ribbon diagrams comparing (a) MAPK, (b) PKA and (c) Cdk2 viewed with the small lobe towards the top. In each structure the amino-terminal segment is shown in purple and the remainder in pink. Peptide insertions are shown in yellow. The inhibitor peptide co-crystallized with the C-subunit of PKA is shown in red. MgATP is shown in green with the magnesium ions indicated as crosses. The conserved buried ion pair corresponding to Arg280 and Glu208 in PKA is shown in each structure with the side chains in yellow. In MAPK (a), the side chains of Arg146, Arg170, Arg65 and Arg68, which are potential ligands for the phosphate, are indicated in yellow with the side chains of the phosphorylation sites, Tyr185 and Thr183 in white. Also shown in yellow is the ion pair Arg299 and Glu195. In the C-subunit of PKA (b), the side chains of Arg165, Lys189 and His87 are shown in yellow and phosphorylated Thr197 is shown in white. The position of the single amino acid insert in the linker region of PKA, Gly125, is also indicated in yellow. The detergent molecule that occupies the myristylation site is shown as a yellow CPK structure on the left. In Cdk2 (c), the side chains of the two phosphorylation sites are shown with Thr160 in white and Tyr15 in yellow. Also shown in yellow are Arg150 and Arg126, potential ligands for the phosphate, and the buried ion pair, Arg274 and Glu172. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 2 Sequence alignment of PKA, MAPK and Cdk2. The sequences are aligned and correlated with the elements of secondary structure in each kinase. The β -strands that align in all three structures are colored blue; the non-conserved strand, β 9, is shown in green. The α -helices that superimpose (D, E, F and H) are in pink, conserved but displaced helices are in light pink, and non-conserved helices are in purple. Ligands or potential ligands to the phosphorylation site (Cdk2, PKA and MAPK) are indicated by blue triangles. Phosphorylation sites in the activation loops are indicated by arrows. Highly conserved residues are indicated by red dots. The conserved regions (I–XI) defined by Hanks et al.[1] are also indicated. Functional loops are labeled and shown in yellow. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 3 Ribbon diagram of the catalytic subunit of PKA highlighting the regions that are variable and conserved in Cdk2 and MAPK. Only the core of the C-subunit (residues 40–300) is shown. Conserved β -strands that superimpose (1 to 8) are shown in blue while the variable β -strand 9 is shown in pale green. Conserved α -helices that superimpose (D, E, F and H) are shown in pink, while conserved but displaced α -helices (C, G and I) are shown in red, and the non-conserved α -helix B is in purple. Conserved residues are shown as black dots. ATP and the side chains of Asp166, Asp184, Arg280 and Glu208 are shown in black. The magnesium ion binding the β - and γ -phosphates is shown as a black dot. Phosphorylated Thr197 is indicated by the yellow arrow. Functional loops are labeled and shown in yellow. The protein kinase inhibitor peptide PKI (5–24) is also shown. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 4 Stereoview showing the superimposition of the α - carbon backbones of PKA, Cdk2 and MAPK. (a) Superimposition of PKA (turquoise) and MAPK (pink). (b) All three structures are superimposed, with PKA in blue, Cdk2 in orange and MAPK in red. (c) Superimposition of PKA (turquoise) and Cdk2 (pink). The phosphorylation sites are indicated as CPK structures (Thr197 of PKA in yellow; Thr160 of Cdk2 in pink; Tyr15 of Cdk2 in green; Thr183 and Tyr185 of MAPK in pink). ATP and the inhibitor peptide, PKI (5–24) are shown in yellow for PKA. N and C indicate the amino and carboxyl termini, respectively. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 4 Stereoview showing the superimposition of the α - carbon backbones of PKA, Cdk2 and MAPK. (a) Superimposition of PKA (turquoise) and MAPK (pink). (b) All three structures are superimposed, with PKA in blue, Cdk2 in orange and MAPK in red. (c) Superimposition of PKA (turquoise) and Cdk2 (pink). The phosphorylation sites are indicated as CPK structures (Thr197 of PKA in yellow; Thr160 of Cdk2 in pink; Tyr15 of Cdk2 in green; Thr183 and Tyr185 of MAPK in pink). ATP and the inhibitor peptide, PKI (5–24) are shown in yellow for PKA. N and C indicate the amino and carboxyl termini, respectively. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 4 Stereoview showing the superimposition of the α - carbon backbones of PKA, Cdk2 and MAPK. (a) Superimposition of PKA (turquoise) and MAPK (pink). (b) All three structures are superimposed, with PKA in blue, Cdk2 in orange and MAPK in red. (c) Superimposition of PKA (turquoise) and Cdk2 (pink). The phosphorylation sites are indicated as CPK structures (Thr197 of PKA in yellow; Thr160 of Cdk2 in pink; Tyr15 of Cdk2 in green; Thr183 and Tyr185 of MAPK in pink). ATP and the inhibitor peptide, PKI (5–24) are shown in yellow for PKA. N and C indicate the amino and carboxyl termini, respectively. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 5 Superimposition of the α -carbon backbones for the small lobes of PKA (turquoise), Cdk2 (red) and MAPK (pink). The side chains of the conserved residues in the small lobe corresponding to Lys72 and Glu91 in PKA are indicated in green. The corresponding side chains in Cdk2, Lys33 and Glu51, are shown in yellow and in MAPK, Lys52 and Glu69 are shown in white. The ATP in PKA is shown in yellow. In all structures the α -carbon of the three glycines in the phosphate-anchoring loop (Gly50, Gly52 and Gly55 in PKA, Gly11, Gly13, and Gly16 in Cdk2, and Gly30, Gly32 and Gly35 in MAPK) are shown in space-filling representation. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 6 Comparison of the activation loops in (a) MAPK, (b) PKA and (c) Cdk2. Three loops are shown: the glycine-rich, phosphate-anchoring loop between β -strands 1 and 2; the activation loop following β 9, and the P+1 loop between the phosphorylation site and the conserved glutamate. Also shown are the C-helix and β 9. The α -carbons of the glycines in the β 1–β 2 loop as well as the phosphorylation sites are shown as CPK structures. In (a), potential side chains that could ligate the phosphates (Arg65, Arg68, Arg146 and Arg170) are highlighted in red while conserved residues (Lys52, Glu69, Glu195 and Arg299) are shown in yellow. In PKA (b), the side chains of ligands to phosphothreonine are highlighted in red (Lys189, Arg165 and His87); conserved residues (Lys72, Glu91, Arg280 and Glu208) as well as Thr197 are shown in yellow. In Cdk2 (c), residues that may come close to the phosphorylated Thr160, (Thr47, Arg50, Arg126 and Arg150) are highlighted in red; conserved residues (Lys33, Glu51, Glu172 and Arg274) are shown in yellow. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 6 Comparison of the activation loops in (a) MAPK, (b) PKA and (c) Cdk2. Three loops are shown: the glycine-rich, phosphate-anchoring loop between β -strands 1 and 2; the activation loop following β 9, and the P+1 loop between the phosphorylation site and the conserved glutamate. Also shown are the C-helix and β 9. The α -carbons of the glycines in the β 1–β 2 loop as well as the phosphorylation sites are shown as CPK structures. In (a), potential side chains that could ligate the phosphates (Arg65, Arg68, Arg146 and Arg170) are highlighted in red while conserved residues (Lys52, Glu69, Glu195 and Arg299) are shown in yellow. In PKA (b), the side chains of ligands to phosphothreonine are highlighted in red (Lys189, Arg165 and His87); conserved residues (Lys72, Glu91, Arg280 and Glu208) as well as Thr197 are shown in yellow. In Cdk2 (c), residues that may come close to the phosphorylated Thr160, (Thr47, Arg50, Arg126 and Arg150) are highlighted in red; conserved residues (Lys33, Glu51, Glu172 and Arg274) are shown in yellow. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 6 Comparison of the activation loops in (a) MAPK, (b) PKA and (c) Cdk2. Three loops are shown: the glycine-rich, phosphate-anchoring loop between β -strands 1 and 2; the activation loop following β 9, and the P+1 loop between the phosphorylation site and the conserved glutamate. Also shown are the C-helix and β 9. The α -carbons of the glycines in the β 1–β 2 loop as well as the phosphorylation sites are shown as CPK structures. In (a), potential side chains that could ligate the phosphates (Arg65, Arg68, Arg146 and Arg170) are highlighted in red while conserved residues (Lys52, Glu69, Glu195 and Arg299) are shown in yellow. In PKA (b), the side chains of ligands to phosphothreonine are highlighted in red (Lys189, Arg165 and His87); conserved residues (Lys72, Glu91, Arg280 and Glu208) as well as Thr197 are shown in yellow. In Cdk2 (c), residues that may come close to the phosphorylated Thr160, (Thr47, Arg50, Arg126 and Arg150) are highlighted in red; conserved residues (Lys33, Glu51, Glu172 and Arg274) are shown in yellow. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)

Figure 7 Comparison of the non-core regions of PKA, MAPK and Cdk2. PKA (ternary complex) is shown in turquoise with the extended segment, including the amino-terminal myristate (yellow) seen in the mammalian binary complex, shown in green. The carboxyl terminus of PKA is indicated as C(A). The carboxy-terminal segment of MAPK (residues 310–358) is shown in pink with the position of the carboxy-terminal residue Ser358 indicated as C(M). Cdk2 (residues 285–298) is in red with the carboxy-terminal residue, Leu298, indicated as C(C). Three conserved hydrophobic sites are indicated: site 1 (Trp296 in PKA, Phe285 in Cdk2, Tyr310 in MAPK) marks the end of the conserved catalytic core that is probably shared by all protein kinases; a second subsite, coincident with the carboxyl terminus of Cdk2, C(C), is shared by PKA and Cdk2 where the side chains of Phe318 (PKA) and Leu298 (Cdk2) converge. A third subsite is shared by PKA and MAPK and corresponds to the surface that is filled by Trp30 and Phe26 in PKA. Phe327 and Phe329 fill this site in MAPK. Structure 1994 2, 345-355DOI: (10.1016/S0969-2126(00)00036-8)