Summary: Pleckstrin homology domain
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Pleckstrin homology domain Edit Wikipedia article
PH domain of tyrosine-protein kinase BTK
Pleckstrin homology domain (PH domain) is a protein domain of approximately 120 amino acids that occurs in a wide range of proteins involved in intracellular signaling or as constituents of the cytoskeleton.
This domain can bind Phosphatidylinositol lipids within biological membranes (such as Phosphatidylinositol (3,4,5)-trisphosphate and phosphatidylinositol (4,5)-bisphosphate), and proteins such as the βγ-subunits of heterotrimeric G proteins, and protein kinase C. Through these interactions, PH domains play a role in recruiting proteins to different membranes, thus targeting them to appropriate cellular compartments or enabling them to interact with other components of the signal transduction pathways.
Lipid binding specificity
Individual PH domains possess specificities for phosphoinositides phosphorylated at different sites within the inositol ring, e.g., some bind phosphatidylinositol (4,5)-bisphosphate but not phosphatidylinositol (3,4,5)-trisphosphate or phosphatidylinositol (3,4)-bisphosphate, while others may possess the requisite affinity. This is important because it makes the recruitment of different PH domain containing proteins sensitive to the activities of enzymes that either phosphorylate or dephosphorylate these sites on the inositol ring, such as phosphoinositide 3-kinase or PTEN, respectively. Thus, such enzymes exert a part of their effect on cell function by modulating the localization of downstream signaling proteins that possess PH domains that are capable of binding their phospholipid products.
The 3D structure of several PH domains has been determined. All known cases have a common structure consisting of two perpendicular anti-parallel beta sheets, followed by a C-terminal amphipathic helix. The loops connecting the beta-strands differ greatly in length, making the PH domain relatively difficult to detect while providing the source of the domain's specificity. The only conserved residue among PH domains is a single tryptophan located within the alpha helix that serves to nucleate the core of the domain.
Proteins containing PH domain
PH domains can be found in many different proteins, such as OSBP or ARF. Recruitment to the Golgi in this case is dependent on both PtdIns and ARF. A large number of PH domains have poor affinity for phosphoinositides and are hypothesized to function as protein binding domains. A Genome-wide look in Saccharomyces cerevisiae showed that most of the 33 yeast PH domains are indeed promiscuous in binding to phosphoinositides, while only one (Num1-PH) behaved highly specific . Proteins reported to contain PH domains belong to the following families:
- Pleckstrin, the protein where this domain was first detected, is the major substrate of protein kinase C in platelets. Pleckstrin is one of the rare proteins to contain two PH domains.
- Ser/Thr protein kinases such as the Akt/Rac family, the beta-adrenergic receptor kinases, the mu isoform of PKC and the trypanosomal NrkA family.
- Tyrosine protein kinases belonging to the Btk/Itk/Tec subfamily.
- Insulin Receptor Substrate 1 (IRS-1).
- Regulators of small G-proteins like guanine nucleotide releasing factor GNRP (Ras-GRF) (which contains 2 PH domains), guanine nucleotide exchange proteins like vav, dbl, SoS and S. cerevisiae CDC24, GTPase activating proteins like rasGAP and BEM2/IPL2, and the human break point cluster protein bcr.
- Cytoskeletal proteins such as dynamin (see IPR001401), Caenorhabditis elegans kinesin-like protein unc-104 (see IPR001752), spectrin beta-chain, syntrophin (2 PH domains) and S. cerevisiae nuclear migration protein NUM1.
- Mammalian phosphatidylinositol-specific phospholipase C (PI-PLC) (see IPR000909) isoforms gamma and delta. Isoform gamma contains two PH domains, the second one is split into two parts separated by about 400 residues.
- Oxysterol binding proteins OSBP, S. cerevisiae OSH1 and YHR073w.
- Mouse protein citron, a putative rho/rac effector that binds to the GTP-bound forms of rho and rac.
- Several S. cerevisiae proteins involved in cell cycle regulation and bud formation like BEM2, BEM3, BUD4 and the BEM1-binding proteins BOI2 (BEB1) and BOI1 (BOB1).
- C. elegans protein MIG-10.
- Ceramide kinase, a lipid kinase that phosphorylates ceramides to ceramide-1-phosphate.
Human genes encoding proteins containing this domain include:
- ABR, ADRBK1, ADRBK2, AFAP, AFAP1, AFAP1L1, AFAP1L2, AKAP13, AKT1, AKT2, AKT3, ANLN, APBB1IP, APPL1, APPL2, ARHGAP10, ARHGAP12, ARHGAP15, ARHGAP21, ARHGAP22, ARHGAP23, ARHGAP24, ARHGAP25, ARHGAP26, ARHGAP27, ARHGAP9, ARHGEF16, ARHGEF18, ARHGEF19, ARHGEF2, ARHGEF3, ARHGEF4, ARHGEF5, ARHGEF6, ARHGEF7, ARHGEF9, ASEF2,
- BMX, BTK,
- C20orf42, C9orf100, CADPS, CADPS2, CDC42BPA, CDC42BPB, CDC42BPG, CENTA1, CENTA2, CENTB1, CENTB2, CENTB5, CENTD1, CENTD2, CENTD3, CENTG1, CENTG2, CENTG3, CIT, CNKSR1, CNKSR2, COL4A3BP, CTGLF1, CTGLF2, CTGLF3, * CTGLF4, CTGLF5, CTGLF6,
- DAB2IP, DAPP1, DDEF1, DDEF2, DDEFL1, DEF6, DEPDC2, DGKD, DGKH, DGKK, DNM1, DNM2, DNM3, DOCK10, DOCK11, DOCK9, DOK1, DOK2, DOK3, DOK4, DOK5, DOK6, DTGCU2,
- FAM109A, FAM109B, FARP1, FARP2, FGD1, FGD2, FGD3, FGD4, FGD5, FGD6,
- GAB1, GAB2, GAB3, GAB4, GRB10, GRB14, GRB7,
- IRS1, IRS2, IRS4, ITK, ITSN1, ITSN2,
- KALRN, KIF1A, KIF1B, KIF1Bbeta,
- MCF2, MCF2L, MCF2L2, MRIP, MYO10,
- NET1, NGEF,
- OBPH1, OBSCN, OPHN1, OSBP, OSBP2, OSBPL10, OSBPL11, OSBPL3, OSBPL5, OSBPL6, OSBPL7, OSBPL8, OSBPL9,
- PHLDA2, PHLDA3, PHLDB1, PHLDB2, PHLPP, PIP3-E, PLCD1, PLCD4, PLCG1, PLCG2, PLCH1, PLCH2, PLCL1, PLCL2, PLD1, PLD2, PLEK, PLEK2, PLEKHA1, PLEKHA2, PLEKHA3, PLEKHA4, PLEKHA5, PLEKHA6, PLEKHA7, PLEKHA8, PLEKHB1, PLEKHB2, PLEKHC1, PLEKHF1, PLEKHF2, PLEKHG1, PLEKHG2, PLEKHG3, PLEKHG4, PLEKHG5, PLEKHG6, PLEKHH1, PLEKHH2, PLEKHH3, PLEKHJ1, PLEKHK1, PLEKHM1, PLEKHM2, PLEKHO1, PLEKHQ1, PREX1, PRKCN, PRKD1, PRKD2, PRKD3, PSCD1, PSCD2, PSCD3, PSCD4, PSD, PSD2, PSD3, PSD4, RALGPS1, RALGPS2, RAPH1,
- RASA1, RASA2, RASA3, RASA4, RASAL1, RASGRF1, RGNEF, ROCK1, ROCK2, RTKN,
- SBF1, SBF2, SCAP2, SGEF, SH2B, SH2B1, SH2B2, SH2B3, SH3BP2, SKAP1, SKAP2, SNTA1, SNTB1, SNTB2, SOS1, SOS2, SPATA13, SPNB4, SPTBN1, SPTBN2, SPTBN4, SPTBN5, STAP1, SWAP70, SYNGAP1,
- TBC1D2, TEC, TIAM1, TRIO, TRIOBP, TYL,
- URP1, URP2,
- VAV1, VAV2, VAV3, VEPH1
- The unrelated FYVE domain binds Phosphatidylinositol 3-phosphate and has been found in over 60 proteins.
- The GRAM domain is a structurally related protein domain.
- Mayer, B. J.; Ren, R.; Clark, K. L.; Baltimore, D. (1993). "A putative modular domain present in diverse signaling proteins". Cell 73 (4): 629–630. doi:10.1016/0092-8674(93)90244-K. PMID 8500161.
- Haslam, R. J.; Koide, H. B.; Hemmings, B. A. (1993). "Pleckstrin domain homology". Nature 363 (6427): 309. doi:10.1038/363309b0.
- Musacchio, A.; Gibson, T.; Rice, P.; Thompson, J.; Saraste, M. (1993). "The PH domain: A common piece in the structural pathcwork of signalling proteins". Trends in Biochemical Sciences 18 (9): 343–348. doi:10.1016/0968-0004(93)90071-T. PMID 8236453.
- Gibson, T. J.; Hyvönen, M.; Musacchio, A.; Saraste, M.; Birney, E. (1994). "PH domain: The first anniversary". Trends in Biochemical Sciences 19 (9): 349–353. doi:10.1016/0968-0004(94)90108-2. PMID 7985225.
- Pawson, T. (1995). "Protein modules and signalling networks". Nature 373 (6515): 573–580. doi:10.1038/373573a0. PMID 7531822.
- Ingley, E.; Hemmings, B. A. (1994). "Pleckstrin homology (PH) domains in signal transducton". Journal of Cellular Biochemistry 56 (4): 436–443. doi:10.1002/jcb.240560403. PMID 7890802.
- Saraste, M.; Hyvönen, M. (1995). "Pleckstrin homology domains: A fact file". Current Opinion in Structural Biology 5 (3): 403–408. doi:10.1016/0959-440X(95)80104-9. PMID 7583640.
- Wang, D. S.; Shaw, G. (1995). "The Association of the C-Terminal Region of β1ΣII Spectrin to Brain Membranes is Mediated by a pH Domain, Does Not Require Membrane Proteins, and Coincides with a Inositol-1,4,5 Trisphosphate Binding Site". Biochemical and Biophysical Research Communications 217 (2): 608–615. doi:10.1006/bbrc.1995.2818. PMID 7503742.
- Wang, D. S.; Shaw, R.; Winkelmann, J. C.; Shaw, G. (1994). "Binding of PH Domains of β-Adrenergic-Receptor Kinase and β-Spectrin to WD40/β-Transducin Repeat Containing Regions of the β-Subunit of Trimeric G-Proteins". Biochemical and Biophysical Research Communications 203 (1): 29–35. doi:10.1006/bbrc.1994.2144. PMID 8074669.
- Yao, L.; Kawakami, Y.; Kawakami, T. (1994). "The pleckstrin homology domain of Bruton tyrosine kinase interacts with protein kinase C". Proceedings of the National Academy of Sciences 91 (19): 9175. doi:10.1073/pnas.91.19.9175.
- Riddihough, G. (1994). "More meanders and sandwiches". Nature Structural Biology 1 (11): 755–757. doi:10.1038/nsb1194-755. PMID 7634082.
- Yu, J. W.; Mendrola, J. M.; Audhya, A.; Singh, S.; Keleti, D.; Dewald, D. B.; Murray, D.; Emr, S. D.; Lemmon, M. A. (2004). "Genome-Wide Analysis of Membrane Targeting by S. Cerevisiae Pleckstrin Homology Domains". Molecular Cell 13 (5): 677–688. doi:10.1016/S1097-2765(04)00083-8. PMID 15023338.
- Sugiura, M.; Kono, K.; Liu, H.; Shimizugawa, T.; Minekura, H.; Spiegel, S.; Kohama, T. (2002). "Ceramide Kinase, a Novel Lipid Kinase. MOLECULAR CLONING AND FUNCTIONAL CHARACTERIZATION". Journal of Biological Chemistry 277 (26): 23294–23300. doi:10.1074/jbc.M201535200. PMID 11956206.
- Nash Lab Protein Interaction Domains - PH domain description
- UMich Orientation of Proteins in Membranes families/superfamily-51 - Calculated orientations of PH domains in membranes
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This Pleckstrin homology domain is found in some fungal species.
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|Similarity to PfamA using HHSearch:||PH PH_8|
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Below is a listing of the unique domain organisations or architectures in which this domain is found. More...
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Members of this clan share a PH-like fold. Many families in this clan bind to short peptide motifs in proteins and are involved in signalling.
The clan contains the following 33 members:bPH_1 bPH_2 bPH_3 bPH_4 bPH_5 bPH_6 DCP1 DUF1448 FERM_C GRAM ICAP-1_inte_bdg Mcp5_PH PH PH_10 PH_11 PH_2 PH_3 PH_4 PH_5 PH_6 PH_7 PH_8 PH_9 PH_BEACH PID PID_2 PTB Ran_BP1 Rtt106 SSrecog Voldacs Vps36_ESCRT-II WH1
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This page displays the phylogenetic tree for this family's seed alignment. We use FastTree to calculate neighbour join trees with a local bootstrap based on 100 resamples (shown next to the tree nodes). FastTree calculates approximately-maximum-likelihood phylogenetic trees from our seed alignment.
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|Number in seed:||7|
|Number in full:||262|
|Average length of the domain:||108.70 aa|
|Average identity of full alignment:||26 %|
|Average coverage of the sequence by the domain:||18.63 %|
|HMM build commands:||
build method: hmmbuild -o /dev/null HMM SEED
search method: hmmsearch -Z 23193494 -E 1000 --cpu 4 HMM pfamseq
|Family (HMM) version:||1|
|Download:||download the raw HMM for this family|
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The tree is built by considering the taxonomic lineage of each sequence that has a match to this family. For each node in the resulting tree, we draw an arc in the sunburst. The radius of the arc, its distance from the root node at the centre of the sunburst, shows the taxonomic level ("superkingdom", "kingdom", etc). The length of the arc represents either the number of sequences represented at a given level, or the number of species that are found beneath the node in the tree. The weighting scheme can be changed using the sunburst controls.
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Unmapped species names
The tree is built by looking at each sequence in the full alignment for the family. We take the name of the species given by UniProt and try to map that to the full taxonomic tree from NCBI. In some cases, the name chosen by UniProt does not map to any node in the NCBI tree, perhaps because the chosen name is listed as a synonym or a misspelling in the NCBI taxonomy.
So that these nodes are not simply omitted from the sunburst tree, we group them together in a separate branch (or segment of the sunburst tree). Since we cannot determine the lineage for these unmapped species, we show all levels between the superkingdom and the species as "uncategorised".
Since we reduce the species tree to only the eight main taxonomic levels, sequences that are mapped to the sub-species level in the tree would not normally be shown. Rather than leave out these species, we map them instead to their parent species. So, for example, for sequences belonging to one of the Vibrio cholerae sub-species in the NCBI taxonomy, we show them instead as belonging to the species Vibrio cholerae.
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The tree shows the occurrence of this domain across different species. More...
We show the species tree in one of two ways. For smaller trees we try to show an interactive representation, which allows you to select specific nodes in the tree and view them as an alignment or as a set of Pfam domain graphics.
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For all of the domain matches in a full alignment, we count the number that are found on all sequences in the alignment. This total is shown in the purple box.
We also count the number of unique sequences on which each domain is found, which is shown in green. Note that a domain may appear multiple times on the same sequence, leading to the difference between these two numbers.
Finally, we group sequences from the same organism according to the NCBI code that is assigned by UniProt, allowing us to count the number of distinct sequences on which the domain is found. This value is shown in the pink boxes.
We use the NCBI species tree to group organisms according to their taxonomy and this forms the structure of the displayed tree. Note that in some cases the trees are too large (have too many nodes) to allow us to build an interactive tree, but in most cases you can still view the tree in a plain text, non-interactive representation. Those species which are represented in the seed alignment for this domain are highlighted.
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For those sequences which have a structure in the Protein DataBank, we use the mapping between UniProt, PDB and Pfam coordinate systems from the PDBe group, to allow us to map Pfam domains onto UniProt sequences and three-dimensional protein structures. The table below shows the structures on which the PH_11 domain has been found. There are 6 instances of this domain found in the PDB. Note that there may be multiple copies of the domain in a single PDB structure, since many structures contain multiple copies of the same protein seqence.
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