| Written | 2015-12 | Valentina La Cognata, Sebastiano Cavallaro |
| Functional Genomics Unit - Institute of Neurogical Sciences - Italian National Research Council - Catania- Italy. sebastiano.cavallaro@cnr.it; valentina.lacognata@functional-genomics.it |
| Abstract | PARK2 (also known as Parkin RBR E3 ubiquitin protein ligase) is one of the largest genes in our genome. It undergoes an extensive alternative splicing both at transcript and protein level, producing multiple transcript variants and distinct protein isoforms. The precise function of PARK2 is still not clear; however, the encoded protein is a component of a multiprotein E3 ubiquitin ligase complex that mediates the targeting of substrates for proteasomal degradation. Mutations in this gene cause Parkinson disease and autosomal recessive juvenile Parkinson disease. Further molecular defects have been linked to other human malignancies. Here, we review some major data on PARK2, concerning the genetic structure, the transcription regulation, the encoded protein and functions, and its implication in human diseases. |
| Keywords | PARK2, parkin, Parkinson's disease |
| Identity |
| Other alias | PARK2 |
| PDJ | |
| PRKN | |
| AR-JP | |
| LPRS2 | |
| Parkin | |
| HGNC (Hugo) | PRKN |
| LocusID (NCBI) | 5071 |
| Atlas_Id | 46408 |
| Location | 6q26 [Link to chromosome band 6q26] |
| Location_base_pair | Starts at 161347558 and ends at 162727802 bp from pter ( according to hg19-Feb_2009) [Mapping PRKN.png] |
| Local_order | PARK2 is flanked towards the telomeric direction by PACRG (or PARK2 co-regulated) gene, which lies in a head-to-head arrangement and shares a common promoter with the adjacent PARK2 (West et al., 2003). In the centromeric direction PARK2 is flanked by AGPAT4 (1-acylglycerol-3-phosphate O-acyltransferase), which encodes a member of the 1-acylglycerol-3-phosphate O-acyltransferase family. According to NCBI MapViewer, further elements overlap or surround the PARK2 genetic region, such as two pseudogenes (KRT8P44 and TRE-TTC15-1) and a set of non-coding RNAs (LOC105378094, LOC105378098, LOC105378097 and LOC105369171). |
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| Figure 1 displays the human chromosome 6 (NCBI Reference Sequence NC_000006.12) and relative localization and orientation of PARK2 and flanking genes. PARK2 gene is represented in blue and is transcribed in antisense orientation (reverse strand). Further genes and non-coding RNAs map in this locus. | |
| Fusion genes (updated 2017) | Data from Atlas, Mitelman, Cosmic Fusion, Fusion Cancer, TCGA fusion databases with official HUGO symbols (see references in chromosomal bands) |
| DNA/RNA |
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| Figure 2 displays the three full-length Reference Sequences of PARK2 gene (NCBI - Nucleotide Database). Corresponding GenBank Accession Numbers are indicated on the left. Exons are represented as coloured boxes (blue for coding regions and grey for non coding), whereas the dashed line indicates intronic regions. The green triangle specifies the start codon, while the red one designates the stop codon. | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
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| Description | PARK2 is one of the largest genes in the human genome, and spans more than 1.38 Mb of genomic DNA in the long arm of chromosome 6 (reverse strand). Based on the first isolated transcript, the genomic organization and exon/intron boundary sequences of PARK2 were established of 12 exons. | ||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Transcription | Currently, the NCBI RefSeq database annotates 3 representative transcripts as full-length PARK2 mRNAs (Figure 2). However, Homo sapiens cDNA sequences deposited in GenBank and UniGene repositories, coaligned on the genomic sequence and clustered in a minimal non-redundant way, support at least 21 different alternatively spliced mRNAs composed by 17 exons (Figure 3) (La Cognata et al., 2014; Scuderi et al., 2014). Each of these splice variants is indicated in Table 1.
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| Pseudogene | No known pseudogenes. |
| Protein |
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| Figure 4 shows the domain composition of PARK2 protein, obtained from SMART Genome tool (http://smart.embl.de/). UBQ is the N-term ubiquitin domain, while IBRs are the C-term in-between ring fingers domains. In Table 2 are reported the aminoacidic start and stop positions and the E-value of the domain prediction. | |||||||||||||||||
| Description | The canonical PARK2 protein (Accession number BAA25751.1) (465 aa) comprises an N-terminal ubiquitin-like (UBQ) domain and two C-terminal in-between ring fingers (IBR) domains (Kitada et al., 1998). The UBQ domain targets specific protein substrates for degradation by the proteasome, whereas IBR domains occur between pairs of ring fingers and play a role in protein quality control (Figure 4). The predicted PARK2 protein isoforms, encoded by the alternative splice transcripts currently known, structurally diverge from the canonic one for the presence or absence of the UBQ domain and for one or both IBR domains. Moreover, when UBQ domain is present, it often differs in length from the canonical one (La Cognata et al, 2014: Scuderi et al., 2014).
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| Figure 5 (adapted from Scuderi et al., 2014) shows a representative immunoblot of parkin protein isoforms in homogenized rat brain, visualized by using five different antibodies (Ab1, Ab2, Ab3, Ab4, Ab5). Immunoblot for β-tubulin is used as control. The right panel of the figure shows the localization of the epitopes recognized by the five antibodies on the canonical parkin protein. | |||||||||||||||||
| Expression | PARK2 is widely expressed in a variety of tissue types, including nervous system areas (brain, substantia nigra, mesencephalon, cerebellum, frontal cortex, striatum) (Shimura et al., 2001; Schlossmacher et al., 2002; LaVoie et al., 2005; Sun et al., 2013) and peripheral regions (skeletal muscle, heart and testicular tissue) (Kitada et al., 1998; Rosen et al., 2006), as well as in immortalized cell lines (neuroblastoma, kidney, epithelial, breast cancer and colon cancer cell lines) (Yamamoto et al., 2005; Henn et al., 2007; Poulogiannis et al., 2010; Tay et al., 2010). In addition, distinct expression patterns of the PARK2 spliced isoforms have emerged in human leukocytes (Kasap et al., 2009), glioma and lung adenocarcinoma cell lines (D'Amico et al., 2015; Maugeri et al., 2015) and aged brain (Pawlyk et al., 2003). The differential expression of PARK2 splice isoforms have also observed in rat and mouse central and peripheral tissues and developmental stages (Horowitz et al., 1999; D'Agata et al., 2000; Gu et al., 2000; Stichel et al., 2000; Huynh et al., 2001). | ||||||||||||||||
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| Figure 6 (adapted from Maugeri et al., 2015) shows the immunolocalization of parkin protein in glioblastoma cell lines (A172 cells). β-actin (red) was used as control and nuclei were stained with DAPI (blue). | |||||||||||||||||
| Localisation | Subcellular localisation: PARK2 is mainly cytoplasmatic (Figure 5). Positive signals have been detected in endoplasmic reticulum (Imai et al., 2002), perinuclear region, microtubules (Ren et al., 2003), nucleus and plasma membrane. PARK2 protein also colocalizes with Lewy bodies (Schlossmacher et al., 2002), the pathological hallmark of Parkinson's Disease and dementia. | ||||||||||||||||
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| Figure 7 shows the major pathways in which PARK2 protein is involved: proteasome-degradation of substrates, mitochondrial homeostasis and mitophagy, and regulation of cellular cycle and cell death. | |||||||||||||||||
| Function | PARK2 protein acts as an E3 ubiquitin protein ligase and is responsible of substrates recognition for proteasome-mediated degradation. It tags various types of proteins, including cytosolic ( SNCAIP (Synphilin-1), GPR37 (Pael-R), SEPT5 (CDCrel-1) and 2a, SNCA ID: 46121> (α-synuclein), p22, Synaptogamina XI) (Imai et al., 2000; Shimura et al., 2000; Zhang et al., 2000; Chung et al., 2001; Staropoli et al., 2003), nuclear (Cyclin E, Cyclin D) (Ikeuchi et al., 2009; Gong et al., 2014) and mitochondrial ones (MFN1 and MFN2, VDAC, TOMM70A, TOMM40 and TOMM0, BAK1, RHOT1 (MIRO1) and RHOT2 (MIRO2), FIS1) (Narendra et al., 2008; Chan et al., 2011; Yoshii et al., 2011; Cookson, 2012; Jin et al., 2012). The number of targets is such high that parkin protein results involved in numerous molecular pathways (proteasome-degradation, mitochondrial homeostasis, mitophagy, mitochondrial DNA stability, regulation of cellular cycle). | ||||||||||||||||
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| Figure 8 shows the evolutionary PARK2 Gene Tree, constructed using the multiple genome comparison tool PhyloView of Genomicus v.82.01 (http://www.genomicus.biologie.ens.fr/). This tool compares a specific gene with all the genomes that possess a homolog (Louis et al., 2015). Mammalia taxon has been defined as the root of the tree. PARK2 gene is displayed and highlighted in the central part of the figure. The internal nodes of the phylogenetic tree are represented as red boxes for duplication and blue boxes for speciation events. The percentage of similarity of homologous proteins is represented with different colours, as indicated in the legend. | |||||||||||||||||
| Homology | PARK2 gene shows a great evolutionary conservation across species, especially mammals. Mouse and rat species represent the most common animals used to model and study human pathologies. Human PARK2 protein shows a protein similarity of about 50% with rat, while it is more similar with the mouse parkin (90% of similarity) (protein similarity is calculated used Genomicus - PhyloView tool) (Figure 8). |
| Mutations |
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| Figure 9 shows the overall distribution of PARK2 somatic mutations in cancer listed in COSMIC Database (http://cancer.sanger.ac.uk/cosmic) (November 2015). The exact number of collected somatic mutations in different cancer types is indicated in Table 3. | |||||||||||||||||||||
| Epigenetics | Promoter hypermethylation is a common epigenetic mechanism to alter the gene expression. PARK2 promoter hypermethylation has been found in acute lymphoblastic leukemia, chronic myeloid leukemia and colorectal cancer (Agirre et al., 2006; Xu et al., 2014). However, the pathogenic role of specific epigenetic changes has not been yet clarified. | ||||||||||||||||||||
| Germinal | A wide spectrum of loss-of-function mutations in PARK2 including simple mutations (nonsense, missense and splice site mutations), frameshift indels or in the untraslated regions, as well as Copy Number Variations of the promoter region and single or multiple exons PARK2 mutations, were identified across the entire gene in either homozygous, compound heterozygous or heterozygous state in familial and sporadic patients from different ethnicities. Heterozygous PARK2 variants have also been observed in healthy control individuals, making the assessment of pathogenicity for these variants quite complex. A complete and updated view of all PARK2 currently known mutations is available at the Parkinson Disease Mutation Database (http://www.molgen.vib-ua.be/PDMutDB/), which collects DNA variations screened among more than 800 families and linked to PD. | ||||||||||||||||||||
| Somatic | Along with the germinal mutations occuring in Parkinson's Disease, genetic defects have also been observed in solid tumors. Based on the analysis of recent next generation sequencing data, the frequency of PARK2 mutations is relatively high in cervical cancer (5.6 %), lung squamous cell cancer (5.6 %), colorectal cancer (2.4 ~ 5.6 %), gastric cancer (4.6 %), skin cutaneous melanoma (3.5 %), lung adenocarcinoma (2.7 ~ 3.1 %), and endometrioid cancer (2.1%) Most cancer-derived PARK2 mutations are located at conserved regions, and more than 10% of mutations lead to frame shifts or truncations, suggesting that those mutations may disrupt or abolish the function of PARK2 (Xu et al., 2014). A list of the known cancer-derived mutations is available at the COSMIC Database and is summarized in Figure 9.
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| Implicated in |
| Note | |
| Entity | Parkinson's Disease |
| Note | Mutations in PARK2 are responsible of 50% of cases with autosomal recessive juvenile Parkinsonism (AR-JP). They also explain ~15% of the sporadic cases with onset before 45 (Lucking et al., 2000; Bonifati, 2012) and act as susceptibility alleles for late-onset forms of Parkinson disease (2% of cases) (Oliveira et al., 2003). Clinical features of PARK2 homozygous mutation carriers are generally indistinguishable from those of idiopathic PD patients with the exception of a clear drop in onset age. Typically PARK2 patients present the classic symptoms of PD (such as bradykinesia, rigidity, and tremor), disease onset before the age of 50 years and a slow disease progression. Although they respond well to levodopa treatment, they are more likely to develop treatment-induced motor complications earlier in the treatment (Nuytemans et al., 2010). |
| Entity | Alzheimer Disease |
| Note | Lonskaya and colleagues investigated the role of parkin in postmortem brain tissues from 21 patients with Alzheimer Disease (AD) and 15 control subjects. They observed decreased parkin solubility in cortex of patients and parkin co-localization with intraneuronal amyloid-beta depositions (Aβ1-42) in the hippocampus and cortex. Parkin accumulation with intraneuronal Aβ and p-Tau was detected in autophagosomes in AD brains. By using a gene transfer animal model, the authors also demonstrated that the expression of wild type parkin facilitate autophagic clearance and promoted deposition of Aβ1-42 and p-Tau into the lysosome (Lonskaya et al., 2013). Parkin, therefore, may clear autophagic defects via autophagosome degradation. |
| Entity | Leprosy |
| Note | Using a positional cloning strategy in 197 Vietnamese leprosy simplex families, Mira et al. found significant associations between leprosy and 17 markers in the 5-prime regulatory region shared by PARK2 and PACRG. They then confirmed these results in 587 Brazilian leprosy cases and 388 unaffected controls. RT-PCR analysis detected wide expression of both PARK2 and PACRG in tissues, and suggested that, in addition to the common bidirectional promoter, gene-specific transcriptional activators may be involved in regulating cell- and tissue-specific gene expression (Mira et al., 2004). In 2013, Alter et al. replicated these findings showing a susceptibility locus in the shared PARK2 and PACRG promoter region in a Vietnamese population. They also found that two SNPs (rs1333955 and rs2023004) were associated with susceptibility to leprosy in a northern Indian population (Alter et al., 2013). |
| Entity | Gliomas |
| Note | Veeriah et al. provided evidence that PARK2 acts as a tumour suppressor gene in glioblastoma multiforme. Genetically, they detected PARK2 copy number loss in 53 of 216 glioblastomas and somatic point mutations in 7 glioblastomas specimens (Veeriah et al., 2010). The action of tumour suppressor gene for gliomas has been furthermore described by Yeo et al., who found parkin expression dramatically reduced in glioma cells, while its restoration promoted G(1) phase cell-cycle arrest and mitigated the proliferation rate (Yeo et al., 2012). Authors suggested the analysis of parkin pathway activation as predictive for the survival outcome of patients with glioma. The effects of PARK2 on tumour cell growth were also confirmed by Lin et al., who reported that PARK2 is frequently deleted and underexpressed in human gliomas, and that restoration of PARK2 significantly inhibited glioma cell growth (Lin et al., 2015). An interesting transcriptional target of parkin is p53. Viotti et al. were able to demonstrate that parkin levels inversely correlate to brain tumour grade and p53 levels in oligodendrogliomas, mixed gliomas and glioblastomas, and established that p53 controls parkin promoter transactivation, mRNA and protein levels (Viotti et al., 2014). |
| Entity | Colon cancer |
| Note | Microarray analysis revealed copy number loss in 24 of 98 colon cancers and different PARK2 somatic point mutations in 2 colon cancer cells lines (Veeriah et al., 2010). Additionally, in 100 primary colorectal carcinomas, Poulogiannis et al. demonstrated by array comparative genomic hybridization that 33% show PARK2 copy number loss (Poulogiannis et al., 2010). The PARK2 deletions are mostly focal, heterozygous, and show maximum incidence in exons 3 and 4. Deficiency in expression of PARK2 is significantly associated also with adenomatous polyposis coli (APC) deficiency in human colorectal cancer. Moreover, in the same study, interbreeding of Park2 heterozygous knockout mice with Apc(Min) mice resulted in a dramatic acceleration of intestinal adenoma development and increased polyp multiplicity. |
| Entity | Lung adenocarcinoma |
| Note | Somatic homozygous deletions of exon 2 of the PARK2 gene were found in 2 lung adenocarcinoma cell lines, Calu-3 and H-1573, suggesting that the loss of this locus and the resulting changes in its expression are involved in the development of the tumour (Cesari et al., 2003). Additional germline and somatic deletions were also reported by Iwakawa et al. in five patients with lung adenocarcinoma and in 31/267 lung adenocarcinoma, indicating that somatic PARK2 mutations occur rarely in lung adenocarcinoma development, but germline mutations could contribute to tumour progression (Iwakawa et al., 2012). Very recently, Xiong et al. reported the PARK2 germline mutation c.823C>T (p.Arg275Trp) in a family with eight cases of lung cancer (Xiong et al., 2015). |
| Entity | Ovarian Cancer |
| Note | Two different groups identified both PARK2 genetic alterations and downregulated expression in ovarian cancer. Cesari et al. detected two PARK2 truncating deletions in 3 of 20 ovarian tumour samples, supporting the hypothesis that hemizygous or homozygous deletions are responsible for the abnormal expression of PARK2 in tumour biopsies and tumour cell lines. They suggest that PARK2 may act as a tumour suppressor gene and may contribute to the initiation and/or progression of ovarian cancer (Cesari et al., 2003). Denison et al. found four cell lines and four primary tumours as heterozygous for the duplication or deletion of a Parkin exon. The analysis of Parkin protein expression revealed that most of the ovarian cancer cell lines and primary tumours had diminished or absent Parkin expression (Denison et al., 2003). |
| Entity | Other malignancies |
| Note | Alterations or molecular defects involving the coding region of the gene (single nucleotide mutations, copy numbers, gene breakage), epigenetic mechanisms, the mRNA up or down regulation, the protein level and the abnormal splicing of PARK2 have been linked to a wide range of other human malignancies (i.e. acute lymphoblastic leukemia, chronic myeloid leukemia, clear cell renal cell carcinoma, hepatocellular carcinoma, head and neck squamous cell carcinoma, gastric cancer, pancreatic adenocarcinoma, breast cancer, bladder urothelial cancer, thyroid cancer, adenoid cystic carcinoma) (Xu et al., 2014). |
| Breakpoints |
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| Figure 10 (adapted from Ambroziak et al., 2015) shows the hypothesized mechanism of the Ex2-5 duplication observed in a patient with early-onset PD. The authors suggest the FoSTeS/MMBIR (fork stalling and template switching/micro-homology-mediated break-induced replication) mechanism as responsible of the rearrangement. Upon replicating, the first exon of the PARK2 gene replication fork stalled and one strand invaded either the sister molecule or the homologue chromosome in inverted orientation (1), resulting in inverted duplication. Subsequently, the original forks were restored, but primed upstream of the point where it first stalled (2), leading to the triplication of the red-highlighted region (Ambroziak et al., 2015). | |
| Note | PARK2 belongs to the family of extremely large human genes and is located within FRA6E, one of the most unstable common fragile sites (CFSs) of the human genome. CFSs are intrinsically difficult to replicate, and are known to play a major role in carcinogenesis. Some factors have been considered to contribute to instabilities, including late-replicating genomic regions, high AT content, flexible DNA sequences or regions enriched in repetitive elements. The exact size of the region of instability of FRA6E is not yet clear; however, it has been suggested that it may span even 9 Mb at 6q25.1-6q26 and that the main fragility core is localised on the telomeric end, within the PARK2 gene sequence. The most common molecular mechanisms which seem predominantly involved in the rearrangement processes of this genomic region are non-homologous end joining (NHEJ) and fork stalling and template switching (FoSTeS)/micro-homology mediated break-induced replication (MMBIR) (Figure 10) (Ambroziak et al., 2015). |
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| Citation |
| This paper should be referenced as such : |
| La Cognata V, Cavallaro S |
| PRKN (arkin RBR E3 ubiquitin protein ligase ); |
| Atlas Genet Cytogenet Oncol Haematol. in press |
| On line version : http://AtlasGeneticsOncology.org/Genes/PARK2ID46408ch6q26.html |
| External links |
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| © Atlas of Genetics and Cytogenetics in Oncology and Haematology | indexed on : Wed Feb 28 14:01:31 CET 2018 |
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