ELM
The Eukaryotic Linear Motif resource for
Functional Sites in Proteins

TRG_NES_CRM1_1

Accession:
Functional site class:
NES Nuclear Export Signals
Functional site description:
The Nuclear Export Signal (NES) is a linear motif involved in the regulated export of macromolecules from the nucleus via the nuclear pores. Import and export of macromolecules is the main way to communicate between cytosol and nucleus. Therefore, although many nuclear proteins do not need to be re-exported, a substantial number of nuclear proteins can shuttle between the nucleus and cytoplasm. In such proteins, the accessibility of the import and export signals needs to be regulated, or they will immediately be returned to the other compartment. Thus, open and closed conformations of NES-bearing proteins are likely to be common features. The nuclear exporter protein, CRM1 mediates the nuclear export of cargo proteins by recognizing amphipathic NESes. These bind in a number of permutations including forward and reverse orientations. Mutations in the NES motif or their recognition regions can lead to several pathological conditions in the cell, including cancer.
ELMs with same func. site: TRG_NES_CRM1_1 TRG_NESrev_CRM1_2
ELM Description:
Accessible peptides matching the leucine-rich nuclear export signal (NES) motif bind to the CRM1 exportin protein. Since the NES has been reported as four to five conserved hydrophobic residues, it has presented a particular problem for experimental verification. Solving 3D structures of putative NES motif-bearing proteins has often revealed that the apparent export signals are buried in the hydrophobic core of globular domains where they cannot function as linear motifs (Gibson,2013). While some of the reported NES peptides are therefore unlikely to be true, many proteins do return to the cytoplasm from the nucleus by this mechanism. The NES pattern in ELM was therefore derived exclusively from reported instances that were not buried in domain cores. The conserved motif is found to be longer and less hydrophobic than originally reported, with a negatively charged residue at each end. An educational structure to view is the MapKapK2 kinase (1KWP), where the NES is conditionally packed onto the kinase domain (Meng,2002) but the negative residues are solvent exposed. There are indications that further negative charges may play a role (la Cour,2004). Solved CRM1-NES complexes (Monecke,2009; Dong,2009) show that a number of complementary positively charged residues are spaced around the NES-binding groove. The structures also show most of the NES peptide is helical when bound, indicating that proline cannot occur in some of the less conserved positions.

With additional structures being solved it became clear that there are five hydrophobic pockets in CRM1. Forward orientation NESes may occupy all five pockets (P0-P4) or may only occupy four hydrophobic pockets, omitting either P0 or P4. Because of this variability, searching for NESes typically used only four hydrophobic positions such as Φ1-(x)2–3-Φ2-(x)2–3-Φ3-x-Φ4 (Lee,2019). This is the case for the current NES forward motif in ELM and therefore it may fail to discover the all-helical NES variants that would not have that spacing.
Pattern: ([DEQ].{0,1}[LIM].{2,3}[LIVMF][^P]{2,3}[LMVF].[LMIV].{0,3}[DE])|([DE].{0,1}[LIM].{2,3}[LIVMF][^P]{2,3}[LMVF].[LMIV].{0,3}[DEQ])
Pattern Probability: 0.0007626
Present in taxon: Eukaryota
Interaction Domain:
Xpo1 (PF08389) Exportin 1-like protein (Stochiometry: 1 : 1)
PDB Structure: 1M5I
o See 18 Instances for TRG_NES_CRM1_1
The import-export protein traffic through the nuclear envelope is mediated by soluble transport receptors (carriers) termed importins and exportins that bind to specific signals present within their substrates. The best-characterized export carrier is CRM1 (also known as exportin1/Xpo1), an evolutionarily well-conserved protein (Fornerod,1997; Wing,2022). CRM1 shuttles between the nucleus and cytoplasm binding cargo molecules in the presence of RanGTP inside the nucleus. The complexes then traverse the nuclear pores and release the cargo into the cytoplasm upon hydrolysis of the Ran-bound GTP.

CRM1-mediated export is inhibited by the fungicide leptomycin B (LMB), providing a unique experimental tool for studying nuclear localization and trafficking in eukaryotic cells. LMB also aided the development of additional small molecule inhibitors of CRM1-mediated nuclear export. Although the side effects are pronounced, Selinexor was approved in 2019 in a combination drug therapy of last resort for relapsed refractory multiple myeloma (RRMM) (Richter,2020). The CRM1 mutation E571K may occur in cancer cells. This residue is present in the NES binding groove, and studies have shown that most of the NESes are not affected by this mutation, with exceptions including Mek1, eIF4E-transporter, and RPS2 that are especially highly charged (Baumhardt,2020).

The NES motif was first identified in the HIV Rev protein (Fischer,1995) and in the Protein Kinase A inhibitor (PKI-alpha) (Wen,1995). Subsequently many more NESes have been identified and crystal structures have shed light on variations in how they bind to CRM1 (Wing,2022). The majority of the export substrates of CRM1 contain an amphipathic Leucine-rich Nuclear Export signal (NES) consisting of 4-5 hydrophobic residues in a region of ~10 amino acids with other residues interspersed between the key hydrophobic residues. The latter binds to a hydrophobic groove on the convex side of the CRM1 ring formed by HEAT repeats 11 and 12. The NES binding groove contains five hydrophobic pockets (P0-P4), with P0 being the shallowest. P0-P2 grooves are wider and specifically bind parts of NESes that are helical while the narrow groove beyond P3 binds either extended residues (ΦXΦ, where Φ is a hydrophobic amino acid) or a continuation of the helix. NESes adopt several variations in conformations to bind into the CRM1 groove; most bind in the classical forward direction, while certain others bind in the reverse direction (Fung,2015).

Forward orientation NESes may occupy all five pockets (P0-P4) or may only occupy four hydrophobic pockets, omitting either P0 or P4. Because of this variability, searching for NESes typically used only four hydrophobic positions such as Φ1-(x)2–3-Φ2-(x)2–3-Φ3-x-Φ4 (Lee,2019). Forcing the Φ-x-Φ spacing in the pattern will probably prevent matches to the all helical NES variant.

The reverse NES has a consensus pattern Φ1xΦ2xxxΦ3xxΦ4xxΦ5 where the hydrophobic residues Φ1-Φ5 bind the same pockets but in reverse order (Fung,2015). All NESes make a main chain hydrogen bond with the CRM1 Lys568 side chain that acts as a specificity filter which occludes the non-NES peptides (Fung,2017). In addition to the key hydrophobic residues, there are clear negative charge preferences in and around the NESrev core motif.

NESdb is a database of experimentally reported NESes (Fung,2021). LocNES is a resource to predict NESes (Xu,2015).

Genuine NES motifs appear to be always in regions of natively disordered polypeptide. Clashes with known globular domains should be assumed to indicate the non-viability of the motif candidate (Gibson,2013). However, NES motifs can be found close in sequence to known domains and may conditionally bind to them in a closed conformation. Regulated accessibility of the NES may be important for many proteins that must stay in the nucleus until signalled to exit, for instance, the MapKapK2 NES can fold back onto its kinase domain (1KWP; Meng,2002). The p53 NES is only available in the monomeric protein, being part of the tetramerization module (Foo,2007). Regulation of nuclear export may be more sophisticated than import: one indication is that CRM1 is much more flexible and dynamic (and harder to crystallize without accessory proteins such as RAN) than importins, although being composed of similar HEAT repeat elements.

A standard crystallisation protocol for CRM1 in complex with NESes has been devised using the ternary complex of CRM1-Ran-RanBP1 (Fung,2022).

o 16 selected references:


o 6 GO-Terms:
Biological Process:
Protein Export From Nucleus (also annotated in these classes: TRG_NESrev_CRM1_2 )
Nucleocytoplasmic Transport (also annotated in these classes: TRG_NESrev_CRM1_2 TRG_NLS_Bipartite_1 TRG_NLS_MonoCore_2 TRG_NLS_MonoExtC_3 TRG_NLS_MonoExtN_4 )
Nuclear Export (also annotated in these classes: TRG_NESrev_CRM1_2 )
Cellular Compartment:
Cytosol (also annotated in these classes: CLV_C14_Caspase3-7 CLV_Separin_Fungi CLV_Separin_Metazoa DEG_APCC_DBOX_1 DEG_APCC_KENBOX_2 DEG_APCC_TPR_1 DEG_Cend_DCAF12_1 DEG_Cend_FEM1AC_1 DEG_Cend_FEM1B_2 DEG_Cend_KLHDC2_1 DEG_Cend_TRIM7_1 DEG_COP1_1 DEG_CRBN_cyclicCter_1 DEG_Kelch_actinfilin_1 DEG_Kelch_Keap1_1 DEG_Kelch_Keap1_2 DEG_Kelch_KLHL12_1 DEG_Kelch_KLHL3_1 DEG_MDM2_SWIB_1 DEG_Nend_Nbox_1 DEG_Nend_UBRbox_1 DEG_Nend_UBRbox_2 DEG_Nend_UBRbox_3 DEG_Nend_UBRbox_4 DEG_ODPH_VHL_1 DEG_SCF_FBW7_1 DEG_SCF_FBW7_2 DEG_SCF_FBXO31_1 DEG_SCF_SKP2-CKS1_1 DEG_SCF_TRCP1_1 DEG_SIAH_1 DOC_AGCK_PIF_1 DOC_AGCK_PIF_2 DOC_AGCK_PIF_3 DOC_ANK_TNKS_1 DOC_CDC14_PxL_1 DOC_CKS1_1 DOC_CYCLIN_D_Helix_1 DOC_CYCLIN_RevRxL_6 DOC_CYCLIN_RxL_1 DOC_CYCLIN_yClb1_LxF_4 DOC_CYCLIN_yClb3_PxF_3 DOC_CYCLIN_yCln2_LP_2 DOC_GSK3_Axin_1 DOC_MAPK_DCC_7 DOC_MAPK_FxFP_2 DOC_MAPK_gen_1 DOC_MAPK_GRA24_9 DOC_MAPK_HePTP_8 DOC_MAPK_JIP1_4 DOC_MAPK_MEF2A_6 DOC_MAPK_NFAT4_5 DOC_MAPK_RevD_3 DOC_MIT_MIM_1 DOC_PP1_MyPhoNE_1 DOC_PP1_RVXF_1 DOC_PP1_SILK_1 DOC_PP2A_B56_1 DOC_PP2A_KARD_1 DOC_PP2B_LxvP_1 DOC_PP2B_PxIxIT_1 DOC_PUB_PIM_1 DOC_RSK_DDVF_1 DOC_SPAK_OSR1_1 DOC_TBK1_STING_1 DOC_WD40_RPTOR_TOS_1 DOC_WW_Pin1_4 LIG_14-3-3_CanoR_1 LIG_14-3-3_ChREBP_3 LIG_14-3-3_CterR_2 LIG_ActinCP_CPI_1 LIG_ActinCP_TwfCPI_2 LIG_Actin_RPEL_3 LIG_Actin_WH2_1 LIG_Actin_WH2_2 LIG_ANK_PxLPxL_1 LIG_AP2alpha_1 LIG_AP2alpha_2 LIG_APCC_ABBA_1 LIG_APCC_Cbox_1 LIG_APCC_Cbox_2 LIG_AP_GAE_1 LIG_Arc_Nlobe_1 LIG_ARL_BART_1 LIG_BH_BH3_1 LIG_BIR_II_1 LIG_BIR_III_1 LIG_BIR_III_2 LIG_BIR_III_3 LIG_BIR_III_4 LIG_CaM_1-14-15-16_REV_1 LIG_CaM_1-26_7 LIG_CaM_1-5-10-14_3 LIG_CaM_1-8-14_4 LIG_CaM_1-8-9-10_5 LIG_CaM_1-8_REV_2 LIG_CaM_IQ_9 LIG_CaMK_CASK_1 LIG_CaM_NSCaTE_8 LIG_CAP-Gly_1 LIG_CAP-Gly_2 LIG_Clathr_ClatBox_1 LIG_Clathr_ClatBox_2 LIG_CNOT1_NIM_1 LIG_CSK_EPIYA_1 LIG_CtBP_PxDLS_1 LIG_deltaCOP1_diTrp_1 LIG_DLG_GKlike_1 LIG_Dynein_DLC8_1 LIG_EABR_CEP55_1 LIG_EF_ALG2_ABM_1 LIG_EF_ALG2_ABM_2 LIG_EH_1 LIG_eIF4E_1 LIG_eIF4E_2 LIG_EVH1_1 LIG_EVH1_2 LIG_EVH1_3 LIG_FAT_LD_1 LIG_FERM_MyoX_1 LIG_FZD_DVL_PDZ LIG_G3BP_FGDF_1 LIG_GBD_Chelix_1 LIG_GBD_WASP_1 LIG_GSK3_LRP6_1 LIG_GYF LIG_IBAR_NPY_1 LIG_IRF7_LxLS_2 LIG_IRFs_LxIS_1 LIG_KLC1_WD_1 LIG_KLC1_Yacidic_2 LIG_LIR_Apic_2 LIG_LIR_Gen_1 LIG_LIR_LC3C_4 LIG_LIR_Nem_3 LIG_LYPXL_L_2 LIG_LYPXL_S_1 LIG_LYPXL_yS_3 LIG_MYND_3 LIG_OCRL_FandH_1 LIG_PAM2_1 LIG_PAM2_2 LIG_PDZ_Class_1 LIG_PDZ_Class_2 LIG_PDZ_Class_3 LIG_PDZ_Wminus1_1 LIG_Pex14_1 LIG_Pex14_2 LIG_Pex14_3 LIG_Pex14_4 LIG_Pex3_1 LIG_PIP2_ANTH_1 LIG_PIP2_ENTH_1 LIG_PROFILIN_1 LIG_PTAP_UEV_1 LIG_PTB_Apo_2 LIG_PTB_Phospho_1 LIG_SH2_CRK LIG_SH2_GRB2like LIG_SH2_NCK_1 LIG_SH2_PTP2 LIG_SH2_SFK_2 LIG_SH2_SFK_CTail_3 LIG_SH2_STAT3 LIG_SH2_STAT5 LIG_SH2_STAT6 LIG_SH3_1 LIG_SH3_2 LIG_SH3_3 LIG_SH3_4 LIG_SH3_CIN85_PxpxPR_1 LIG_SH3_PxRPPK_7 LIG_SH3_PxxDY_5 LIG_SH3_PxxPPRxxK_8 LIG_SH3_PxxxRxxKP_6 LIG_SPRY_1 LIG_SUFU_1 LIG_SxIP_EBH_1 LIG_TPR LIG_TRAF2like_MATH_loPxQ_2 LIG_TRAF2like_MATH_shPxQ_1 LIG_TRAF3_MATH_PxP_3 LIG_TRAF4_MATH_1 LIG_TRAF6_MATH_1 LIG_TYR_ITAM LIG_TYR_ITIM LIG_TYR_ITSM LIG_UFM1_UFIM_1 LIG_VCP_SHPBox_1 LIG_VCP_VBM_3 LIG_VCP_VIM_2 LIG_Vh1_VBS_1 LIG_WH1 LIG_WRC_WIRS_1 LIG_WW_1 LIG_WW_2 LIG_WW_3 MOD_AAK1BIKe_LxxQxTG_1 MOD_CAAXbox MOD_CDC14_SPxK_1 MOD_CDK_SPK_2 MOD_CDK_SPxK_1 MOD_CDK_SPxxK_3 MOD_CK1_1 MOD_CK2_1 MOD_DYRK1A_RPxSP_1 MOD_GSK3_1 MOD_LATS_1 MOD_LOK_YxT_1 MOD_NEK2_1 MOD_NEK2_2 MOD_NMyristoyl MOD_PIKK_1 MOD_PK_1 MOD_PKA_1 MOD_PKA_2 MOD_PKB_1 MOD_PLK MOD_Plk_1 MOD_Plk_2-3 MOD_Plk_4 MOD_PRMT_GGRGG_1 MOD_ProDKin_1 MOD_SPalmitoyl_2 MOD_SPalmitoyl_4 MOD_TYR_CSK MOD_TYR_DYR ELM:old_LIG_14-3-3_1 ELM:old_LIG_14-3-3_2 ELM:old_LIG_14-3-3_3 TRG_AP2beta_CARGO_1 TRG_Cilium_Arf4_1 TRG_Cilium_RVxP_2 TRG_DiLeu_BaEn_1 TRG_DiLeu_BaEn_2 TRG_DiLeu_BaEn_3 TRG_DiLeu_BaEn_4 TRG_DiLeu_BaLyEn_6 TRG_DiLeu_LyEn_5 TRG_ENDOCYTIC_2 TRG_ER_diArg_1 TRG_ER_diLys_1 TRG_ER_FFAT_1 TRG_ER_FFAT_2 TRG_Golgi_diPhe_1 TRG_LysEnd_APsAcLL_1 TRG_LysEnd_APsAcLL_3 TRG_LysEnd_GGAAcLL_1 TRG_LysEnd_GGAAcLL_2 TRG_NESrev_CRM1_2 TRG_PTS1 TRG_PTS2 )
Nucleus (also annotated in these classes: CLV_C14_Caspase3-7 CLV_Separin_Fungi CLV_Separin_Metazoa CLV_TASPASE1 DEG_APCC_DBOX_1 DEG_APCC_KENBOX_2 DEG_APCC_TPR_1 DEG_Cend_DCAF12_1 DEG_Cend_FEM1AC_1 DEG_Cend_FEM1B_2 DEG_Cend_KLHDC2_1 DEG_Cend_TRIM7_1 DEG_COP1 DEG_COP1_1 DEG_CRL4_CDT2_1 DEG_CRL4_CDT2_2 DEG_Kelch_Keap1_1 DEG_Kelch_Keap1_2 DEG_MDM2_SWIB_1 DEG_ODPH_VHL_1 DEG_SCF_COI1_1 DEG_SCF_FBW7_1 DEG_SCF_FBW7_2 DEG_SCF_FBXO31_1 DEG_SCF_SKP2-CKS1_1 DEG_SCF_TIR1_1 DEG_SCF_TRCP1_1 DEG_SIAH_1 DEG_SPOP_SBC_1 DOC_ANK_TNKS_1 DOC_CDC14_PxL_1 DOC_CKS1_1 DOC_CYCLIN_D_Helix_1 DOC_CYCLIN_RevRxL_6 DOC_CYCLIN_RxL_1 DOC_CYCLIN_yClb1_LxF_4 DOC_CYCLIN_yClb3_PxF_3 DOC_CYCLIN_yClb5_NLxxxL_5 DOC_CYCLIN_yCln2_LP_2 DOC_MAPK_DCC_7 DOC_MAPK_FxFP_2 DOC_MAPK_gen_1 DOC_MAPK_GRA24_9 DOC_MAPK_HePTP_8 DOC_MAPK_JIP1_4 DOC_MAPK_MEF2A_6 DOC_MAPK_NFAT4_5 DOC_MAPK_RevD_3 DOC_PIKK_1 DOC_PP1_MyPhoNE_1 DOC_PP1_RVXF_1 DOC_PP1_SILK_1 DOC_PP2A_B56_1 DOC_PP2A_KARD_1 DOC_PP2B_LxvP_1 DOC_PP2B_PxIxIT_1 DOC_PP4_FxxP_1 DOC_PP4_MxPP_1 DOC_USP7_MATH_1 DOC_USP7_MATH_2 DOC_USP7_UBL2_3 DOC_WW_Pin1_4 LIG_14-3-3_CanoR_1 LIG_14-3-3_ChREBP_3 LIG_14-3-3_CterR_2 LIG_ANK_PxLPxL_1 LIG_APCC_ABBA_1 LIG_APCC_Cbox_1 LIG_APCC_Cbox_2 LIG_ARL_BART_1 LIG_ARS2_EDGEI_1 LIG_BRCT_BRCA1_1 LIG_BRCT_BRCA1_2 LIG_BRCT_MDC1_1 LIG_CaM_1-14-15-16_REV_1 LIG_CaMK_CASK_1 LIG_CORNRBOX LIG_CSL_BTD_1 LIG_CtBP_PxDLS_1 LIG_CtBP_RRT_2 LIG_DCNL_PONY_1 LIG_EF_ALG2_ABM_1 LIG_EF_ALG2_ABM_2 LIG_EH1_1 LIG_FHA_1 LIG_FHA_2 LIG_GLEBS_BUB3_1 LIG_HCF-1_HBM_1 LIG_HOMEOBOX LIG_HP1_1 LIG_IRF7_LxLS_2 LIG_IRFs_LxIS_1 LIG_KEPE_1 LIG_KEPE_2 LIG_KEPE_3 LIG_LEDGF_IBM_1 LIG_LSD1_SNAG_1 LIG_MAD2 LIG_Menin_MBM1_1 LIG_MLH1_MIPbox_1 LIG_MSH2_SHIPbox_1 LIG_MTR4_AIM_1 LIG_Mtr4_Air2_1 LIG_Mtr4_Trf4_1 LIG_Mtr4_Trf4_2 LIG_MYND_1 LIG_MYND_2 LIG_MYND_3 LIG_NBox_RRM_1 LIG_NRBOX LIG_Nrd1CID_NIM_1 LIG_PALB2_WD40_1 LIG_PCNA_APIM_2 LIG_PCNA_PIPBox_1 LIG_PCNA_TLS_4 LIG_PCNA_yPIPBox_3 LIG_PTAP_UEV_1 LIG_RBL1_LxSxE_2 LIG_RB_LxCxE_1 LIG_RB_pABgroove_1 LIG_REV1ctd_RIR_1 LIG_RPA_C_Plants LIG_RPA_C_Vert LIG_RRM_PRI_1 LIG_Rrp6Rrp47_Mtr4_1 LIG_Sin3_1 LIG_Sin3_2 LIG_Sin3_3 LIG_SUFU_1 LIG_SUMO_SIM_anti_2 LIG_SUMO_SIM_par_1 LIG_TPR LIG_Trf4_IWRxY_1 LIG_TRFH_1 LIG_UBA3_1 LIG_ULM_U2AF65_1 LIG_VCP_SHPBox_1 LIG_VCP_VBM_3 LIG_VCP_VIM_2 LIG_WD40_WDR5_VDV_1 LIG_WD40_WDR5_VDV_2 LIG_WD40_WDR5_WIN_1 LIG_WD40_WDR5_WIN_2 LIG_WD40_WDR5_WIN_3 LIG_WRPW_1 LIG_WRPW_2 LIG_WW_2 MOD_AAK1BIKe_LxxQxTG_1 MOD_CDC14_SPxK_1 MOD_CDK_SPK_2 MOD_CDK_SPxK_1 MOD_CDK_SPxxK_3 MOD_CK1_1 MOD_CK2_1 MOD_DYRK1A_RPxSP_1 MOD_GSK3_1 MOD_NEK2_1 MOD_NEK2_2 MOD_PIKK_1 MOD_PKA_1 MOD_PKA_2 MOD_PKB_1 MOD_PLK MOD_Plk_1 MOD_Plk_2-3 MOD_Plk_4 MOD_PRMT_GGRGG_1 MOD_ProDKin_1 MOD_SUMO_for_1 MOD_SUMO_rev_2 ELM:old_LIG_14-3-3_1 ELM:old_LIG_14-3-3_2 ELM:old_LIG_14-3-3_3 TRG_NESrev_CRM1_2 TRG_NLS_Bipartite_1 TRG_NLS_MonoCore_2 TRG_NLS_MonoExtC_3 TRG_NLS_MonoExtN_4 )
Molecular Function:
Protein Binding (also annotated in these classes: CLV_C14_Caspase3-7 CLV_Separin_Fungi CLV_Separin_Metazoa DEG_APCC_TPR_1 DEG_Cend_DCAF12_1 DEG_Cend_FEM1AC_1 DEG_Cend_FEM1B_2 DEG_Cend_KLHDC2_1 DEG_Cend_TRIM7_1 DEG_COP1 DEG_COP1_1 DEG_CRBN_cyclicCter_1 DEG_CRL4_CDT2_1 DEG_CRL4_CDT2_2 DEG_ODPH_VHL_1 DEG_SCF_COI1_1 DEG_SCF_FBW7_1 DEG_SCF_FBW7_2 DEG_SCF_FBXO31_1 DEG_SCF_SKP2-CKS1_1 DEG_SCF_TIR1_1 DEG_SCF_TRCP1_1 DEG_SIAH_1 DOC_AGCK_PIF_1 DOC_AGCK_PIF_2 DOC_AGCK_PIF_3 DOC_ANK_TNKS_1 DOC_CKS1_1 DOC_MAPK_DCC_7 DOC_MAPK_GRA24_9 DOC_MAPK_HePTP_8 DOC_MAPK_JIP1_4 DOC_MAPK_MEF2A_6 DOC_MAPK_NFAT4_5 DOC_PIKK_1 DOC_PP1_MyPhoNE_1 DOC_PP1_RVXF_1 DOC_PP1_SILK_1 DOC_PP2A_B56_1 DOC_PP2A_KARD_1 DOC_PP2B_LxvP_1 DOC_RSK_DDVF_1 DOC_SPAK_OSR1_1 DOC_WD40_RPTOR_TOS_1 LIG_14-3-3_ChREBP_3 LIG_ActinCP_CPI_1 LIG_ActinCP_TwfCPI_2 LIG_ANK_PxLPxL_1 LIG_AP2alpha_1 LIG_AP2alpha_2 LIG_APCC_Cbox_1 LIG_APCC_Cbox_2 LIG_AP_GAE_1 LIG_ARL_BART_1 LIG_ARS2_EDGEI_1 LIG_BH_BH3_1 LIG_BIR_II_1 LIG_BIR_III_1 LIG_BIR_III_2 LIG_BIR_III_3 LIG_BIR_III_4 LIG_CaM_IQ_9 LIG_CaMK_CASK_1 LIG_CNOT1_NIM_1 LIG_deltaCOP1_diTrp_1 LIG_DLG_GKlike_1 LIG_Dynein_DLC8_1 LIG_EABR_CEP55_1 LIG_EF_ALG2_ABM_1 LIG_EF_ALG2_ABM_2 LIG_EH_1 LIG_eIF4E_1 LIG_eIF4E_2 LIG_EVH1_1 LIG_EVH1_2 LIG_FAT_LD_1 LIG_FHA_1 LIG_FHA_2 LIG_FXI_DFP_1 LIG_GLEBS_BUB3_1 LIG_HCF-1_HBM_1 LIG_IBAR_NPY_1 LIG_Integrin_isoDGR_2 LIG_IRF7_LxLS_2 LIG_IRFs_LxIS_1 LIG_KLC1_Yacidic_2 LIG_LEDGF_IBM_1 LIG_LIR_Apic_2 LIG_LIR_Gen_1 LIG_LIR_LC3C_4 LIG_LIR_Nem_3 LIG_LRP6_Inhibitor_1 LIG_LSD1_SNAG_1 LIG_LYPXL_L_2 LIG_LYPXL_S_1 LIG_LYPXL_SIV_4 LIG_LYPXL_yS_3 LIG_MAD2 LIG_Menin_MBM1_1 LIG_MLH1_MIPbox_1 LIG_MSH2_SHIPbox_1 LIG_MTR4_AIM_1 LIG_Mtr4_Air2_1 LIG_Mtr4_Trf4_1 LIG_Mtr4_Trf4_2 LIG_MYND_3 LIG_Nrd1CID_NIM_1 LIG_NRP_CendR_1 LIG_OCRL_FandH_1 LIG_PALB2_WD40_1 LIG_PDZ_Class_1 LIG_PDZ_Class_2 LIG_PDZ_Class_3 LIG_PDZ_Wminus1_1 LIG_Pex14_1 LIG_Pex14_2 LIG_Pex3_1 LIG_PTB_Apo_2 LIG_PTB_Phospho_1 LIG_RBL1_LxSxE_2 LIG_RB_pABgroove_1 LIG_REV1ctd_RIR_1 LIG_RPA_C_Plants LIG_RPA_C_Vert LIG_RuBisCO_WRxxL_1 LIG_SH2_CRK LIG_SH2_GRB2like LIG_SH2_NCK_1 LIG_SH2_SFK_2 LIG_SH2_SFK_CTail_3 LIG_SH2_STAP1 LIG_SH3_1 LIG_SH3_2 LIG_SH3_3 LIG_SH3_4 LIG_SH3_CIN85_PxpxPR_1 LIG_SH3_PxxDY_5 LIG_SPRY_1 LIG_SUFU_1 LIG_TRAF2like_MATH_loPxQ_2 LIG_TRAF2like_MATH_shPxQ_1 LIG_TRAF3_MATH_PxP_3 LIG_TRAF4_MATH_1 LIG_TRAF6_MATH_1 LIG_Trf4_IWRxY_1 LIG_UFM1_UFIM_1 LIG_VCP_SHPBox_1 LIG_VCP_VBM_3 LIG_VCP_VIM_2 LIG_Vh1_VBS_1 LIG_WD40_WDR5_VDV_1 LIG_WD40_WDR5_VDV_2 LIG_WD40_WDR5_WIN_1 LIG_WD40_WDR5_WIN_2 LIG_WD40_WDR5_WIN_3 LIG_WH1 LIG_WRC_WIRS_1 LIG_WW_1 LIG_WW_2 LIG_WW_3 MOD_Plk_2-3 MOD_Plk_4 MOD_PRMT_GGRGG_1 TRG_AP2beta_CARGO_1 TRG_Cilium_Arf4_1 TRG_Cilium_RVxP_2 TRG_DiLeu_BaEn_1 TRG_DiLeu_BaEn_2 TRG_DiLeu_BaEn_3 TRG_DiLeu_BaEn_4 TRG_DiLeu_BaLyEn_6 TRG_DiLeu_LyEn_5 TRG_ER_diLys_1 TRG_ER_FFAT_1 TRG_ER_FFAT_2 TRG_Golgi_diPhe_1 TRG_LysEnd_APsAcLL_1 TRG_LysEnd_APsAcLL_3 TRG_LysEnd_GGAAcLL_1 TRG_LysEnd_GGAAcLL_2 TRG_NESrev_CRM1_2 TRG_NLS_Bipartite_1 TRG_NLS_MonoCore_2 TRG_NLS_MonoExtC_3 TRG_NLS_MonoExtN_4 )


o 18 Instances for TRG_NES_CRM1_1
(click table headers for sorting; Notes column: =Number of Switches, =Number of Interactions)
Acc., Gene-, NameStartEndSubsequenceLogic#Ev.OrganismNotes
P0C205
REX_HTL1A
80 93 PSMDALSAQLYSSLSLDSPP TP 3 Human T-cell lymphotrophic virus type 1 (strain ATK)
P03508 NS
NEP_I34A1
11 22 SSFQDILLRMSKMQLESSSG TP 3 Influenza A virus (A/Puerto Rico/8/1934(H1N1))
P30307 CDC25C
MPIP3_HUMAN
189 203 AEEISDELMEFSLKDQEAKV TP 2 Homo sapiens (Human)
1
O35973 Per1
PER1_MOUSE
488 499 SDIQELSEQIHRLLLQPVHS TP 2 Mus musculus (House mouse)
P03508 NS
NEP_I34A1
10 22 SSFQDILLRMSKMQLESSSG TP 3 Influenza A virus (A/Puerto Rico/8/1934(H1N1))
O95149 SNUPN
SPN1_HUMAN
2 17 MEELSQALASSFSVSQDLNS TP 3 Homo sapiens (Human)
Q05116 map2k1
MP2K1_XENLA
31 44 TNLEALQKKLEELELDEQQR TP 2 Xenopus laevis (African clawed frog)
P49137 MAPKAPK2
MAPK2_HUMAN
354 368 VKEEMTSALATMRVDYEQIK TP 3 Homo sapiens (Human)
P04637 TP53
P53_HUMAN
339 352 ERFEMFRELNEALELKDAQA TP 2 Homo sapiens (Human)
1
P05865 rev
REV_HV1C4
74 87 VPLQLPPLERLTLDCSEDCG TP 2 Human immunodeficiency virus type 1 (CDC-451 ISOLATE)
P61925 PKIA
IPKA_HUMAN
37 51 SNELALKLAGLDINKTEGEE TP 2 Homo sapiens (Human)
O15350 TP73
P73_HUMAN
366 379 ENFEILMKLKESLELMELVP TP 2 Homo sapiens (Human)
Q13043 STK4
STK4_HUMAN
359 374 HDDTLPSQLGTMVINAEDEE TP 2 Homo sapiens (Human)
O54943 Per2
PER2_MOUSE
459 470 PSVQELTEQIHRLLMQPVPH TP 2 Mus musculus (House mouse)
P13350 ccnb1
CCNB1_XENLA
106 121 LPDELCQAFSDVLIHVKDVD TP 2 Xenopus laevis (African clawed frog)
O60716 CTNND1
CTND1_HUMAN
942 956 GQESLEEELDVLVLDDEGGQ TP 2 Homo sapiens (Human)
1
P25054 APC
APC_HUMAN
163 176 AQLQNLTKRIDSLPLTENFS TP 3 Homo sapiens (Human)
P25054 APC
APC_HUMAN
67 78 SGQIDLLERLKELNLDSSNF TP 2 Homo sapiens (Human)
Please cite: ELM-the Eukaryotic Linear Motif resource-2024 update. (PMID:37962385)

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