PRKN
Available structures
PDBOrtholog search: PDBe RCSB
Identifiers
AliasesPRKN, parkin RBR E3 ubiquitin protein ligase, AR-JP, LPRS2, PDJ, PARK2, Parkin
External IDsOMIM: 602544 MGI: 1355296 HomoloGene: 3355 GeneCards: PRKN
Orthologs
SpeciesHumanMouse
Entrez

5071

50873

Ensembl

ENSG00000185345

ENSMUSG00000023826

UniProt

O60260

Q9WVS6

RefSeq (mRNA)

NM_004562
NM_013987
NM_013988

NM_016694
NM_001317726

RefSeq (protein)

NP_004553
NP_054642
NP_054643

NP_001304655
NP_057903

Location (UCSC)Chr 6: 161.35 – 162.73 MbChr 17: 11.06 – 12.28 Mb
PubMed search[3][4]
Wikidata
View/Edit HumanView/Edit Mouse

Parkin is a 465-amino acid residue E3 ubiquitin ligase, a protein that in humans and mice is encoded by the PARK2 gene.[5][6] Parkin plays a critical role in ubiquitination – the process whereby molecules are covalently labelled with ubiquitin (Ub) and directed towards degradation in proteasomes or lysosomes. Ubiquitination involves the sequential action of three enzymes. First, an E1 ubiquitin-activating enzyme binds to inactive Ub in eukaryotic cells via a thioester bond and mobilises it in an ATP-dependent process. Ub is then transferred to an E2 ubiquitin-conjugating enzyme before being conjugated to the target protein via an E3 ubiquitin ligase.[7] There exists a multitude of E3 ligases, which differ in structure and substrate specificity to allow selective targeting of proteins to intracellular degradation.

In particular, parkin recognises proteins on the outer membrane of mitochondria upon cellular insult and mediates the clearance of damaged mitochondria via autophagy and proteasomal mechanisms.[8] Parkin also enhances cell survival by suppressing both mitochondria-dependent and -independent apoptosis. Mutations are associated with mitochondrial dysfunction, leading to neuronal death in Parkinson’s disease[9] and aberrant metabolism in tumourigenesis.[10]

Structure

The precise function of parkin is unknown; however, the protein is a component of a multiprotein E3 ubiquitin ligase complex which in turn is part of the ubiquitin-proteasome system that mediates the targeting of proteins for degradation. Mutations in this gene are known to cause a familial form of Parkinson's disease known as autosomal recessive juvenile Parkinson's disease (AR-JP). Moreover, parkin is described to be necessary for mitophagy (autophagy of mitochondria).

However, how loss of function of the parkin protein leads to dopaminergic cell death in this disease is unclear. The prevailing hypothesis is that parkin helps degrade one or more proteins toxic to dopaminergic neurons. Putative substrates of parkin include synphilin-1, CDC-rel1, cyclin E, p38 tRNA synthase, Pael-R, synaptotagmin XI, sp22 and parkin itself (see also ubiquitin ligase). Additionally, parkin contains a C-terminal motif that binds PDZ domains. Parkin has been shown to associate in a PDZ dependent manner with the PDZ domain containing proteins CASK and PICK1.

A. Schematic diagram delineating arrangement of parkin functional domains. B. Cartoon representation of parkin in its autoinhibited state, with the catalytic cysteine in RING2 occluded by RING0 while Ubl and REP linker prevents E2 from binding to RING1. RING0, RING1, IBR and RING2 each coordinate two Zn ions (approximate location denoted by grey circles) for structural stability, leading to a stoichiometry of 8 Zn2+/parkin.

Like other members of the RING-between-RING (RBR) family of E3 ligases, parkin possesses two RING finger domains and an in-between-RING (IBR) region. RING1 forms the binding site for E2 Ub-conjugating enzyme while RING2 contains the catalytic cysteine residue (Cys431) that cleaves Ub off E2 and transiently binds it to E3 via a thioester bond.[8] Ub transfer is aided by neighbouring residues histidine His433, which accepts a proton from Cys431 to activate it, and glutamate Glu444, which is involved in autoubiquitination.[11] Together these form the catalytic triad, whose assembly is required for parkin activation.[12] Parkin also contains an N-terminal Ub-like domain (Ubl) for specific substrate recognition, a unique RING0 domain and a repressor (REP) region that tonically suppresses ligase activity.

Under resting conditions, the tightly coiled conformation of parkin renders it inactive, as access to the catalytic RING2 residue is sterically blocked by RING0, while the E2 binding domain on RING1 is occluded by Ubl and REP.[8] Activating stimuli disrupt these interdomain interactions and induce parkin to collapse along the RING1-RING0 interface.[12] The active site of RING2 is drawn towards E2-Ub bound to RING1, facilitating formation of the Ub-thioester intermediate. Parkin activation requires phosphorylation of serine Ser65 in Ubl by serine/threonine kinase, PINK1. Addition of a charged phosphate destabilises hydrophobic interactions between Ubl and neighbouring subregions, reducing autoinhibitory effects of this N-terminus domain.[13] Ser65Ala missense mutations were found to ablate Ub-parkin binding whilst inhibiting parkin recruitment to damaged mitochondria.[14] PINK1 also phosphorylates Ub at Ser65, accelerating its discharge from E2 and enhancing its affinity for parkin.[13]

Although structural changes following phosphorylation are uncertain, crystallisation of parkin revealed a cationic pocket in RING0 formed by lysine and arginine residues Lys161, Arg163 and Lys211 that forms a putative phosphate binding site.[15] Considering that RING0 is unique to parkin and that its hydrophobic interface with RING1 buries Cys431 in inactive parkin,[14] targeting of phosphorylated Ub and/or Ubl towards this binding niche might be critical in dismantling autoinhibitory complexes during parkin activation.

Function

Mitophagy

Parkin plays a crucial role in mitophagy and clearance of reactive oxygen species.[16] Mitophagy is the elimination of damaged mitochondria in autophagosomes, and is dependent on a positive feedback cycle involving synergistic action of parkin and PINK1. Following severe cellular insult, rundown of mitochondrial membrane potential prevents import of PINK1 into the mitochondrial matrix and causes it to aggregate on the outer mitochondrial membrane (OMM).[17] Parkin is recruited to mitochondria following depolarisation and phosphorylated by PINK1, which simultaneously phosphorylates Ub pre-conjugated to mitochondrial membrane proteins. PINK1 and Ub phosphorylation facilitate parkin activation and further assembly of mono- and poly-Ub chains.[13] Considering the proximity of these chains to PINK1, further phosphorylation of Ub at Ser65 is likely, potentiating parkin mobilisation and substrate ubiquitination in a self-reinforcing cycle.[8]

Parkin substrates include mitofusins Mfn1 and Mfn2, which are large GTPases that promote mitochondria fusion into dynamic, tubular complexes that maximise efficiency of oxidative phosphorylation.[18] However, upon mitochondrial damage, degradation of fusion proteins is necessary to separate them from the network via mitochondrial fission and prevent the corruption of healthy mitochondria.[19] Parkin is therefore required before mitophagy as it ubiquinates Mfn1/2, labelling it for proteasomal degradation. Proteomic studies identified additional OMM proteins as parkin substrates, including fission protein FIS, its adaptor TBC1D15 and translocase TOMM20 and TOMM70 that facilitate movement of proteins such as PINK1 across OMM.[20] Miro (or RHOT1/RHOT2) is an OMM protein critical for axonal transport, and may be ubiquitinated and targeted towards proteasomal degradation by parkin.[21] Miro breakdown produced a marked decrease in migration of compromised mitochondria along axons of mouse hippocampal neurons,[22] reinforcing the importance of parkin in segregating defective mitochondria from their functioning counterparts and limiting the spatial spread of mitochondrial dysfunction, prior to autophagy.

During mitophagy, parkin targets VDAC1, a voltage-gated anion channel that undergoes a conformational change upon mitochondrial membrane depolarisation, exposing a cytosolic domain for ubiquitination.[17] Silencing of VDAC1 expression in HeLa cells significantly reduced parkin recruitment to depolarised mitochondria and their subsequent clearance,[23] highlighting the critical role of VDAC1 as a selective marker of mitochondrial damage and instigator of mitophagy. Following Ub conjugation, parkin recruits autophagy receptors such as p62, TAX1BP1 and CALCOCO2, facilitating assembly of autophagosomes that digest defective mitochondria.[20]

Cell survival

Through activation of NF-κB signalling, parkin enhances survival and protects cells from stress-induced apoptosis. Upon cellular insult, parkin activates the catalytic HOIP subunit of another E3 ligase LUBAC. HOIP triggers assembly of linear Ub polymers on NF-κB essential modulator (NEMO), potentiating transcription of mitochondrial GTPase OPA1.[24] Increased OPA1 translation maintains cristae structure and reduces cytochrome C release from mitochondria, inhibiting caspase-mediated apoptosis. Importantly, parkin activates HOIP with greater potency than other LUBAC-associated factors HOIL-1 and sharpin,[25] meaning that parkin mobilisation significantly enhances tolerance to moderate stressors.

Parkin possesses DNA binding affinity and produces a dose-dependent reduction in transcription and activity of pro-apoptotic factor p53. Transfection of p53 promoter with truncated versions of parkin into SH-SY5Y neurons revealed that parkin directly binds to the p53 promoter via its RING1 domain.[26] Conversely, parkin may be a transcriptional target of p53 in H460 lung cells, where it mediates the tumour suppressor action of p53.[10] Considering its role in mitochondrial homeostasis, parkin aids p53 in maintaining mitochondrial respiration while limiting glucose uptake and lactate production, thus preventing onset of the Warburg effect during tumourigenesis.[27] Parkin further elevates cytosolic glutathione levels and protects against oxidative stress, characterising it as a critical tumour suppressor with anti-glycolytic and antioxidant capabilities.[10]

Clinical significance

Parkinson’s disease

PARK2 (OMIM *602544) is the parkin gene that may cause a form of autosomal recessive juvenile Parkinson disease (OMIM 600116) due to a mutation in the parkin protein. This form of genetic mutation may be one of the most common known genetic causes of early-onset Parkinson disease. In one study of patients with onset of Parkinson disease prior to age 40 (10% of all PD patients), 18% had parkin mutations, with 5% homozygous mutations.[28] Patients with an autosomal recessive family history of parkinsonism are much more likely to carry parkin mutations if age at onset is less than 20 (80% vs. 28% with onset over age 40).[29]

Patients with parkin mutations (PARK2) do not have Lewy bodies. Such patients develop a syndrome that closely resembles the sporadic form of PD; however, they tend to develop symptoms at a much younger age. In humans, loss-of-function mutations in parkin PARK2 gene have been implicated in 50% of inherited and 15% of juvenile-onset sporadic forms of Parkinson’s disease (PD).[16] While PD is traditionally regarded a late-onset neurodegenerative condition characterised by alpha-synuclein-enriched Lewy bodies, autosomal recessive PD due to parkin mutations is often early onset and lack the ubiquitinated protein deposits pathognomonic for sporadic PD.[21] Parkin-mutant PD could also involve loss of noradrenergic neurons in the locus coeruleus alongside the hallmark degeneration of dopaminergic neurons in the substantia nigra pars compacta (SNpc).[30] However, its symptoms resembles those of idiopathic PD, with patients presenting with resting tremors, postural instability and bradykinesia.[9]

While mitochondria are essential for ATP generation in any eukaryotic cell, catecholaminergic neurons are particularly reliant on their proper function for clearance of reactive oxygen species produced by dopamine metabolism, and to supply high energy requirements of catecholamine synthesis.[17] Their susceptibility to oxidative damage and metabolic stress render catecholaminergic neurons vulnerable to neurotoxicity associated with aberrant regulation of mitochondrial activity, as is postulated to occur in both inherited and idiopathic PD. For example, enhanced oxidative stress in neurons, skeletal muscle and platelets, corresponding with reduced activity of complex I in the electron transport chain were reported in PD patients,[31] while deletions in the mitochondrial genome were found in the SNpc.[32]

In accordance with its critical role in mitochondrial quality control, more than 120 pathogenic, PD-inducing mutations have been characterised on parkin.[8] Such mutations may be hereditary or stochastic and are associated with structural instability, reduced catalytic efficiency and aberrant substrate binding and ubiquitination.[9] Mutations can generally be categorised into three groups, depending on their location. Firstly, those clustered around Zn-coordinating residues on RING and IBR might compromise structural integrity and impair catalysis.[12] A second class of mutations, including Thr240Arg, affect residues in and around the E2 binding site and alter autoinhibition of RING1 by REP.[33] Finally, Cys431Phe and Gly430Asp mutations impair ligase activity at the catalytic site and significantly reduce parkin function.[8]

The discovery of numerous non-mitochondrial parkin substrates reinforces the importance parkin in neuronal homeostasis, beyond its role in mitochondrial regulation. Potent neuroprotective abilities of parkin in attenuating dopaminergic neurotoxicity, mitochondrial swelling and excitotoxicity were demonstrated in cell cultures over-expressing parkin,[9] although the existence of such mechanisms at physiological parkin levels in vivo is yet unconfirmed. Another parkin substrate, synphilin-1 (encoded by SNCAIP), is an alpha-synuclein interacting protein that is enriched in the core of Lewy bodies and ubiquitinated by parkin in a manner abolished by familial PD-associated mutations.[34] Parkin might promote aggregation of alpha-synuclein and synphilin-1 into Lewy bodies, which are conjugated to Lys63-linked poly-Ub chains and directed towards autophagic degradation.[35] Parkin mutations therefore inhibit this mechanism, leading to toxic accumulation of soluble proteins that overloads the proteasome. Protein aggregation triggers neuronal toxicity, whilst accounting for lack of ubiquitinated Lewy bodies in parkin-mutant PD. Similarly, native parkin reduces death of SH-SY5Y neurons by ubiquitinating other Lewy body constituents, such as the p38 subunit of aminoacyl-tRNA synthetase complex[36] and far upstream element-binding protein 1[37] through addition of Lys48-linked poly-Ub chains and directing them towards proteasomal degradation. Parkin also influences axonal transport and vesicle fusion through ubiquitination of tubulin and synaptotagmin XI (SYT11) respectively, giving it a modulatory role in synapse function.[9]

Finally, parkin protects dopaminergic neurons from cytotoxicity induced by PD-mimetic 6-OHDA, mediated by suppression of neuronal p53 expression and its downstream activation of the apoptotic cascade.[26] Several PD-associated parkin mutations are localised to RING1 and might impair its ability to bind and downregulate the p53 promoter, leading to enhanced p53 expression.[38] Parkin-mutant PD patients also exhibit a four-fold elevation in p53 immunoreactivity,[26] insinuating that failure of parkin-mediated anti-apoptosis might be involved in etiology of PD.

Tumourigenesis

Consistent with parkin’s potent anti-tumourigenic abilities, negative mutations and deletions have been reported in various tumours. For example, PARK2 copy number was reduced in 85% of glioblastoma samples while lung cancers were associated with heterozygous deletion of PARK2 at 6q25-q27 locus.[39] Parkin deficiency further diminished disease-free survival in infrared-irradiated mice without increasing tumour incidence rate, suggesting that parkin deficiencies increase susceptibility to tumour-promoting events, rather than initiating tumour formation.[10] Similarly, chromosomal breaks in PARK2 suppressed expression of afadin scaffold protein in breast cancer, thereby comprising epithelial integrity, enhancing metastatic potential and worsening overall prognosis.[40] Haploinsufficient PARK2 expression, either due to reduced copy number or DNA hypermethylation, was further detected in spontaneous colorectal cancer where it accelerated all stages of intestinal adenoma development in mouse models.[41] Parkin is therefore a potent modulator of tumour progression, without directly instigating tumourigenesis.

Interactions

Parkin (ligase) has been shown to interact with:

References

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  4. ↑ "Mouse PubMed Reference:". National Center for Biotechnology Information, U.S. National Library of Medicine.
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  37. ↑ Ko HS, Kim SW, Sriram SR, Dawson VL, Dawson TM (June 2006). "Identification of far upstream element-binding protein-1 as an authentic Parkin substrate". The Journal of Biological Chemistry. 281 (24): 16193–6. doi:10.1074/jbc.C600041200. PMID 16672220.
  38. ↑ Hattori N, Matsumine H, Asakawa S, Kitada T, Yoshino H, Elibol B, Brookes AJ, Yamamura Y, Kobayashi T, Wang M, Yoritaka A, Minoshima S, Shimizu N, Mizuno Y (August 1998). "Point mutations (Thr240Arg and Gln311Stop) [correction of Thr240Arg and Ala311Stop] in the Parkin gene". Biochemical and Biophysical Research Communications. 249 (3): 754–8. doi:10.1006/bbrc.1998.9134. PMID 9731209.
  39. ↑ Veeriah S, Taylor BS, Meng S, Fang F, Yilmaz E, Vivanco I, Janakiraman M, Schultz N, Hanrahan AJ, Pao W, Ladanyi M, Sander C, Heguy A, Holland EC, Paty PB, Mischel PS, Liau L, Cloughesy TF, Mellinghoff IK, Solit DB, Chan TA (January 2010). "Somatic mutations of the Parkinson's disease-associated gene PARK2 in glioblastoma and other human malignancies". Nature Genetics. 42 (1): 77–82. doi:10.1038/ng.491. PMC 4002225. PMID 19946270.
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