Abstract
Parkinson’s disease (PD) represents one of the most common multifactorial neurodegenerative disorders affecting the elderly population. It is associated with the aggregation of α-synuclein protein and the loss of dopaminergic neurons in the substantia nigra pars compacta of the brain. The disease is mainly represented by motor symptoms, such as resting tremors, postural instability, rigidity, and bradykinesia, that develop slowly over time. Parkinson’s disease can also manifest as disturbances in non-motor functions. Although the pathology of PD has not yet been fully understood, it has been suggested that the disruption of the cellular redox status may contribute to cellular oxidative stress and, thus, to cell death. The generation of reactive oxygen species and reactive nitrogen intermediates, as well as the dysfunction of dopamine metabolism, play important roles in the degeneration of dopaminergic neurons. In this context, the transient receptor potential channel canonical (TRPC) sub-family plays an important role in neuronal degeneration. Additionally, PD gene products, including DJ-1, SNCA, UCH-L1, PINK-1, and Parkin, also interfere with mitochondrial function leading to reactive oxygen species production and dopaminergic neuronal vulnerability to oxidative stress. Herein, we discuss the interplay between these various biochemical and molecular events that ultimately lead to dopaminergic signaling disruption, highlighting the recently identified roles of TRPC in PD.
Introduction
Neurological disorders continue to increase in tandem with longer lifespans in populations, with aging remaining the biggest risk factor for developing neurodegenerative diseases. Parkinson’s disease (PD) is one of the most common multifactorial neurodegenerative disorders. Indeed, it affects approximately 2% of the elderly population and 4% of individuals aged over 80 years (Berman and Nichols, 2019).
Disease onset usually occurs at the age of 65–70 years (Marino et al., 2019). However, its pathological changes can be observed as early as 20 years prior to the appearance of motor symptoms and include unspecific signs such as fatigue, hyposmia, and constipation (Hawkes et al., 2010). Motor symptoms develop slowly over time and are the main clinical characteristics of PD. These include dysfunctions of the somatomotor system such as resting tremors, rigidity, bradykinesia, and postural instability (Schapira et al., 2017). In turn, there is a progressive physical limitation, in addition to impairments in non-motor functions such as neuropsychiatric (sleep disorders, depression, and dementia) and autonomic symptoms (bladder and gastrointestinal alterations) (Sakakibara et al., 2012; Fasano et al., 2015).
The pathogenesis of PD is not completely understood. However, different studies have contributed to the dissection and determination of some of the mechanisms involved in its establishment and progression. Classically, the progressive neurodegeneration in PD is associated with the aggregation of α-synuclein, a small lipid-binding protein, into structures called Lewy bodies in the substantia nigra pars compacta (SNpc).
Accumulation of dopamine (DA) and DA products has also been pointed as a potential mechanism involved in neuronal death (Mullin and Schapira, 2015). Indeed, the neurotoxic effects of the endogenous DA derivative N-methyl-(R)-salsolinol (NMSAL) (Naoia et al., 2002) was shown to induce oxidative stress and decrease the levels of reduced glutathione (GSH) in dopaminergic SH-SY5Y cells (Wanpen et al., 2004). The progressive loss of DA neurons leads to a subsequent reduction of DA levels. All these alterations contribute to an abnormal neuronal functioning, and thus, to motor deficiency and worsening of the quality of life of patients at advanced stages of PD (Magrinelli et al., 2016).
For instance, many studies have provided substantial evidence of the role of neuroinflammation (Tansey and Goldberg, 2010), mitochondrial dysfunction (Park et al., 2018, 2019), and oxidative and nitrosative stresses in PD (Puspita et al., 2017). In this context, disruption of neuronal calcium ion (Ca2+) homeostasis in the central nervous system plays a critical role in the cascade of events that culminates in the degeneration of dopaminergic neurons (Zaichick et al., 2017). Also, a correlation between reactive oxygen species (ROS) production and Ca2+ channel activation has already been explored (Görlach et al., 2015).
Recent studies have focused in the identification of a link between Ca2+-mediated signaling and neuroinflammation (Sama and Norris, 2013). It observed an association between neurodegeneration, mitochondrial dysfunction, and, oxidative and nitrosative stresses (Celsia et al., 2009). This evidence points to a role for transient receptor potential channels (TRP) in PD (Takahashi and Mori, 2011).
First discovered in Drosophila melanogaster as key molecules in phototransduction, the TRP channels comprise a family of non-selective cation channels that are widely expressed on mammalian cells, including neurons and different types of non-neuronal cells. They are distributed in six different subfamilies: ankyrin (TRPA1), canonical (TRPC1-7), melastatin (TRPM1-8), mucolipin (TRPML1-3), polycystin (TRPP1-3), and vanilloid (TRPV1-6). Their broad tissue expression confers them the ability to influence different pathologies and physiological states. In this context, it is now known that these channels participate in the development and maintenance of inflammation and pain, are important sensors of molecules such as lipids and ROS, and are involved in thermoregulation, tissue remodeling, and neuronal plasticity, among other responses.
Oxidative and Nitrosative Stresses in Parkinson’s Disease
Reactive oxygen species and reactive nitrogen intermediates (RNIs) are natural byproducts necessary for cellular homeostasis (Liguori et al., 2018) (Figure 1). ROS are formed during metabolic redox reactions and include hydrogen peroxide (H2O2), singlet oxygen (1O2), hydroxyl (∙OH), and superoxide (O2∙−) radicals (Sies et al., 2017). RNIs are produced in neuronal cells from arginine by the neuronal nitric oxide synthase (nNOS) and include nitric oxide (NO∙), nitrite (NO2), and S-nitrosothiols and peroxynitrite (OONO−) (Adams et al., 2015).
FIGURE 1
Excessive ROS and RNI formation during oxidative and nitrosative stresses results in a variety of detrimental effects in the cell, thus, contributing to organelle and membrane structural damages and cellular apoptosis (Guo et al., 2018). This cytotoxic environment has been recognized as a common underlying phenomenon in the dopaminergic neurodegenerative process (Dias et al., 2013). Indeed, an irregular oxidation of macromolecules, such as lipids, proteins, and nucleic acids, was observed in the brain tissues of PD patients (Bosco et al., 2006; Nakabeppu et al., 2007). Also, higher levels of the oxidative stress markers 8-OhdG (8-Oxo-2′-deoxyguanosine) and malondialdehyde, in addition to NO2, were detected in the peripheral blood of PD patients in comparison with healthy individuals (Wei et al., 2018). The same patients presented systemic down-regulation of the antioxidant proteins glutathione and catalase (CAT).
In addition, major genetic insights indicate that specific mutations in a series of primary genes that are responsible for PD-related synucleopathy and the regulation of mitochondrial and ROS equilibrium can disrupt cellular homeostasis (Cacabelos, 2017). For instance, an elevated expression of the wα-synuclein protein and oxidative stress genes [HSPB1, Heat Shock Protein Family B (Small) Member 1; NOX1, NADPH oxidase 1; and MAOB, Monoamine oxidase B] was observed in induced pluripotent stem cell (iPSC)-derived dopaminergic neurons (Nguyen et al., 2011). Similarly, iPSC midbrain dopaminergic neurons from patients with PTEN-induced putative kinase 1 (PINK1) or Parkin mutations presented abnormal mitochondria (Chung et al., 2016) (Figure 1).
Accordingly, evidence suggests that in PD, the mitochondrion represents the primary source of ROS, contributing to intracellular oxidative stress and therefore, to the vulnerability of dopaminergic neurons to apoptosis (Beal, 2005). Moreover, knockout mice for Dynamin-1-like protein (Drp1), a guanosine triphosphate (GTP)ase that regulates mitochondrial fission, exhibited degeneration of nigrostriatal dopaminergic neurons (Berthet et al., 2014). This response was associated with a reduced mitochondrial mass in axons, which was associated with impaired mitochondrial dynamics denoted by the loss of coordination of mitochondrial movements.
Additionally, disruption of respiratory chain complexes, especially the mitochondrial complex I (NADH-quinone oxidoreductase), was implicated in the enhanced production of ROS in PD (Ryan et al., 2015). Human studies also indicated that the dysfunction of this specific complex occurs in the SNpc of PD patients (Schapira et al., 1990). Of note, mitochondrial integrity in SNpc neurons was found to be dependent on Parkin expression (Park et al., 2006; Stichel et al., 2007).
In regard to RNIs, the excessive or inappropriate generation of NO and O2∙−-derived reactive species, plays a critical role in mediating the neurotoxicity associated with mitochondrial damage (Kaludercic and Giorgio, 2016). The reaction between NO and O2∙− represents an important source of OONO−, a highly reactive molecule for a broad range of chemical targets that potently inhibits mitochondrial proteins. OONO− overproduction was found to enhance the levels of oxidized lipids and DNA in the dopaminergic neurons of PD patients (Ebadi and Sharma, 2003). Depletion of antioxidant defenses, including GSH, was also observed in the same samples (Franco and Cidlowski, 2009). Interestingly, nNOS- and inducible NO synthase (iNOS)-dependent NO levels were increased in the SNpc of PD patients (Hancock et al., 2008). Also, high levels of NO and OONO− correlated with a worse prognosis in PD (Kouti et al., 2013), corroborating the hypothesis that both RNI and ROS generation may strongly contribute to neurodegeneration in PD.
Antioxidant proteins such as superoxide dismutase (SOD), CAT, glutathione peroxidase (GPx), and GSH counteract excessive ROS production. Therefore, reductions in their activities and/or expression may favor lipid peroxidation or promote neuronal excitotoxicity with subsequent protein modifications and eventual neuronal death (Deponte, 2013; Patlevič et al., 2016). Interestingly, evident differences were found in the levels of GSH of post-mortem brain samples of PD patients in comparison with other brain regions (Perry et al., 1982; Sian et al., 1994). Also, animal studies revealed that down-regulation of GSH synthesis results in a progressive degeneration of nigrostriatal dopaminergic neurons (Garrido et al., 2011).
By using agonists and antagonists, knockout mice and cells, and a diverse range of molecular biology techniques, several roles have been suggested for the TRPC subfamily. These include their importance as sensors of molecules involved in oxidative and nitrosative stresses (Figure 1) known to influence neuronal survival and function (Chen et al., 2009; Delgado-Camprubi et al., 2017).
Transient Receptor Potential Channels and the Canonical Subfamily
In humans, the TRPC subfamily is formed by six channels (TRPC1 and TRPC3-7), which are considered the mammalian TRPs most closely related to those of D. melanogaster. TRPC channels are formed by four subunits and each subunit has six transmembrane domains and a pore region between the fifth and the sixth transmembrane domain (Feng, 2017).
TRPCs assemble into tetramers to form functional channels. Each monomer consists of a transmembrane domain and a cytosolic domain (Li et al., 2019). The cytosolic domain contains the N- and C-terminal subdomains. The N-terminal is composed of four ankyrin repeats and linker helices, whilst the C-terminal is formed by a connecting helix and a coiled-coil domain (Li et al., 2019). All TRPC channels contain the calmodulin and inositol trisphosphate (IP3) receptor-binding motif, which is able to interact with phosphoinositides, inositol polyphosphates, Gαi/o proteins, and SEC14 domain and spectrin repeat-containing protein 1 (SESTD1), a Ca2+-dependent phospholipid/cytoskeleton-binding protein (Wang et al., 2020). These different interacting pathways may influence TRPC functions.
Distributed in two subgroups, diacylglycerol (DAG)-activated (TRPC3/6/7) and non-DAG-activated receptors (TRPC1/4/5), TRPC channels can form homo- and heterotetramers (Strübing et al., 2001; Zagranichnaya et al., 2005; Poteser et al., 2006; Woo et al., 2014; Myeong et al., 2016; Bröker-Lai et al., 2017; Sunggip et al., 2018; Ko et al., 2019). Their assembly in these complexes may vary with their expression sites and functions. Additionally, members of the TRPC subfamily, such as TRPC1, can also form heterotetramers with channels of other TRP subfamilies, including TRPV4 and TRPP2 (Kobori et al., 2009; Greenberg et al., 2017). Despite the advances in elucidating the structure and assembly of TRPCs, the definite functions of their homo- and heterotetramers remain unclear and represent a whole new avenue of knowledge to be pursued.
So far, different roles have been identified for TRPC channels including in cardiovascular, lung, kidney and neurological diseases, inflammation, and cancer, among others. Of importance to our review, TRPCs are involved in neurotransmission, neural development, excitotoxicity, and neurodegeneration (Wang et al., 2020). Interestingly, TRPC channels, especially TRPC1, have topped the list of molecules involved in store-operated Ca2+ entry. However, it is now well-established that their importance goes beyond the endoplasmic reticulum Ca2+ store (Wang et al., 2020). Herein, we will focus on the importance of TRPC channels as oxidative and nitrosative sensors in PD.
In regard to oxidative stress, TRPC5 is perhaps the most well investigated member of the TRPC subfamily. It can be activated by both oxidant and antioxidant molecules such as H2O2 and reduced thioredoxin, respectively (Yoshida et al., 2006; Xu et al., 2008; Naylor et al., 2011). TRPC5 can be also activated by NO and reactive disulfides (Yoshida et al., 2006; Maddox et al., 2018). However, TRPC5 sensitivity to NO has been argued by other studies (Xu et al., 2008; Wong et al., 2010), indicating this response may vary with cell type, generated NO concentrations, and other experimental conditions. Interestingly, TRPC5/TRPC4 complexes were found to be involved in the regulation of Ca2+-dependent production of NO by endothelial cells (Yoshida et al., 2006). TRPC5-dependent NO generation via endothelial NOS (eNOS) activation was later confirmed (Sunggip et al., 2018).
Another interesting finding is the ability of oxidant products such as OONO− to up-regulate both the mRNA and protein expressions of TRPC6 and TRPC3 in monocytes. Of note, OONO−-induced Ca2+ influx in these cells is reversed by the TRPC channel blocker 2-APB (Wuensch et al., 2010). Additionally, TRPC3/TRPC4 assembly forms redox-sensitive complexes on endothelial cells (Poteser et al., 2006). Adding another layer of complexity to TRPC roles in oxidative/nitrosative stresses, it is important to highlight that these channels do not only form complexes but are also able to down-regulate each other’s’ responses. Indeed, TRPC3/TRPC6-mediated Ca2+ influx can be down-regulated by activation of the TRPC5-NO axis (Sunggip et al., 2018).
Evidence also indicates that TRPC1 negatively regulates TRPC5-mediated Ca2+ influx in striatal neurons undergoing oxidative stress (Hong et al., 2015). Interestingly, TRPC1/TRPC5 complexes have been shown to mediate the protective effects of reduced thioredoxin in inflammation, therefore acting as a target for this antioxidant molecule (Xu et al., 2008).
Importantly, TRPCs are highly expressed in various regions of the brain in which they play different roles (Table 1). Thus, due to their ability to sense and modulate oxidative/nitrosative stress responses, they should be considered as potential mediators of neuroinflammation. Therefore, the importance of TRPC channels in PD will now be discussed.
TABLE 1
| Receptor | Animal species/strains/cell lines | Expression site | Possible roles/effects following activation | References |
| TRPC1 | Sprague-Dawley rats | Telencephalon | Renewal of neural stem cells | Fiorio Pla et al., 2005; |
| Wistar rats | cerebellum, and midbrain cortical pyramidal and SNpc neurons | Modulation of neuronal firing somato-dendritic release of dopamine following activation of mGluR and synaptic plasticity | Martorana et al., 2006; Valero et al., 2015; Martinez-Galan et al., 2018 | |
| C57BL/6J mice | Hippocampal neural progenitor cells and neurons | Mediation of store-operated Ca2+ entry and neuronal cell differentiation and mediation of glutamate-induced cell death | Narayanan et al., 2008; Li et al., 2012 | |
| SH-SY5Y cells and TRPC1 wild type and knockout mice (C57BL/6J background) | Neuroblastoma cells and mouse DA neurons from SNpc | Increased cell survival | Selvaraj et al., 2012 | |
| Human | Brain cortical lesions from epilepsy patients and healthy tissues, | Mediation of astrocyte-induced epilepsy | Zang et al., 2015 | |
| Cell line | D54 human glioma cells, H19-7 hippocampal neurons, PC12 cells | Store-operated Ca2+ entry and activation of Cl– channels, differentiation of hippocampal neuronal cells, stimulation of neurite outgrowth and down-regulation of TRPC5-mediated responses | Wu et al., 2004; Heo et al., 2012; Cuddapah et al., 2013 | |
| TRPC3 | Sprague-Dawley rats | Cerebellum, striatal cholinergic interneurons, striatal cholinergic interneurons, cortical neurons | Increased neuronal survival, modulation of the tonic activity of striatal cholinergic interneurons following activation of mGluR1/5, neuronal depolarization via interaction with dopamine receptors, mediation of low calcium and magnesium-induced depolarization, epileptiform activity, and redox-signaling | Berg et al., 2007; Jia et al., 2007; Roedding et al., 2013; Xie and Zhou, 2014; Zhou and Roper, 2014 |
| Wistar rats | Hippocampus | Integrity of the neuronal morphology, synaptic plasticity and cognition | Qin et al., 2015 | |
| Balb/c | Prefrontal cortex | Depression-like behavior | Buran et al., 2017 | |
| Wild type and Mwk mice | Cerebellum | Regulation of Purkinje cell development and survival, and synaptic plasticity | Becker et al., 2009; Dulneva et al., 2015 | |
| C57Bl6J/SJL, and TRPC3 wild type and knockout (Sv129 background) | Hippocampus | Decrease in neuronal excitability, and early-onset memory deficits | Neuner et al., 2015 | |
| Human | Cerebellar Purkinje neurons | Downstream signaling to mGluR activation; contribution of the TRPC3c isoform to focal ischaemic brain injury | Cederholm et al., 2019 | |
| Cell line | H19-7 hippocampal neurons | Differentiation of hippocampal neuronal cells via store-operated calcium entry | Wu et al., 2004 | |
| TRPC4 | TRPC4 wild type and knockout rats | Dopamine neurons | Dopaminergic activity and cocaine addition | Klipec et al., 2016 |
| C57BL/6 mice | Hippocampus, cortex, olfactory bulb, lateral septum, coronal brain slices, and prefrontal cortex | Neuronal development, anxiety, and depression | Zechel et al., 2007; Yang et al., 2015; Just et al., 2018 | |
| Gonadotropin-releasing hormone (GnRH) transgenic mice | GnRH neurons from the pre-optic area | Sustained excitation of GnRH neurons and gonadotropin release | Zhang et al., 2013 | |
| TRPC4 wild type and knockout mice (mixed background) | Amygdala, hippocampus, lateral septum, and hippocampus | Innate fear responses, downstream signaling to mGluR activation, seizure-induced excitotoxicity and neurodegeneration | Phelan et al., 2012; Riccio et al., 2014 | |
| BL/6 P0 mice | Hippocampal neurons | Inhibition of neurite outgrowth | Jeon et al., 2013 | |
| Human | Brain cortical lesions from epilepsy patients and healthy tissues | Seizure events | Wang et al., 2017 | |
| Cell line | PC12 cells | Exocytosis in neuroendocrine cells | Obukhov and Nowycky, 2002 | |
| TRPC5 | Sprague-Dawley rats | Pyramidal and hippocampal neurons | Seizure events, inhibition of dendritic development | Tai et al., 2011; He et al., 2012 |
| C57BL/6 mice | Coronal brain slices, cerebellar granular neurons, hippocampus, prefrontal cortex and retinal ganglion cells | Anxiety and depression, neuronal regeneration, retinal ganglion cell death | Yang et al., 2015; Wu et al., 2016; Just et al., 2018; Oda et al., 2019 | |
| TRPC5 wild type and knockout mice (129/SvImJ background) | Cortical neurons | Oxidative stress-induced neuronal cell death | Park et al., 2019 | |
| YAC128 mutant Huntington’s disease transgenic mice | Striatal cells | Oxidative stress-induced neuronal damage | Hong et al., 2015 | |
| TRPC5 wild type and knockout mice (C57BL/6 and 129/SvImJ mixed background) | Hippocampus and amygdala | Fear-related responses | Riccio et al., 2009 | |
| Human | Brain cortical lesions from epilepsy patients and healthy tissues | Seizure events | Xu et al., 2015 | |
| Cell line | E18 hippocampal neurons, PC12 cells, NG108-15 neuroblastoma/glioma hybrid cells | Axon formation, neuronal development and plasticity, growth cone morphology and motility, neuronal regeneration | Greka et al., 2003; Wu et al., 2007; Davare et al., 2009; Wu et al., 2016 | |
| TRPC6 | Sprague-Dawley rats | Cerebellum and substantia nigra | Neuronal survival, downstream signaling to mGluR activation | Giampà et al., 2007; Jia et al., 2007 |
| C57BL/6J mice TRPC6 wild type and over-expressing mice Cell line | Hippocampus E18 hippocampal neurons | Neuronal survival Synaptic and behavioral plasticity Dendritic growth | Kunert-Keil et al., 2006; Tai et al., 2008; Zhou et al., 2008; Boisseau et al., 2009; Du et al., 2010; Lin et al., 2013; Yao et al., 2013 | |
| TRPC7 | Sprague-Dawley rats | Cholinergic interneurons, substantia nigra, subthalamic nucleus neurons | Downstream signaling to striatal mGluR1/5 receptors and NMDA-induced depolarization-activated inward current and firing | Zhu et al., 2005; Berg et al., 2007 |
Neuronal expression and functions of TRPC channels.
TRPC Canonical Channels in Parkinson’s Disease
Reports of the contribution of TRPC channels in PD are relatively new and we have not yet uncovered their definite roles in disease progression and maintenance. Also, few studies have attempted to link their expression and/or activation with the ongoing oxidative and nitrosative stresses that occur in PD.
TRPC1 is the most well investigated member of the canonical subfamily in PD. A study in SH-SY5Y cells demonstrated that TRPC1 protein expression becomes down-regulated in these cells following incubation with salsolinol (Bollimuntha et al., 2006), a neurotoxin endogenously found in the nigrostriatal cells and cerebrospinal fluid samples of patients with PD (Moser et al., 1995; Maruyama et al., 1996). Despite its low expression on the cell membrane, the TRPC1 protein was detected in the cytosol (Bollimuntha et al., 2006). This result suggests that salsolinol may cause TRPC1 translocation from the neuronal cell membrane to the cytoplasm.
Interestingly, the endogenous salsolinol derivative NMSAL was detected in the nigrostriatum and intraventricular fluid samples of patients with PD (Maruyama et al., 1996). NMSAL induces neuronal apoptosis via mitochondrial and caspase-3-dependent pathways (Akao et al., 1999; Maruyama et al., 2001; Arshad et al., 2014) and it is considered to be far more toxic to neurons than salsolinol (Maruyama et al., 1996). NMSAL exhibited similar effects to those of salsolinol in neuronal TRPC1 expression and localization (Arshad et al., 2014). All this evidence indicates a protective role for TRPC1 in PD.
Ca2+-induced ROS generation in cultured rat DA neurons treated with the neurotoxin 1-methyl-4-phenylpyridinium ion (MPP+) was also linked to TRPC1 (Chen et al., 2013). Another study by Selvaraj et al. (2009) showed that 1-methyl- 4-phenyl-1, 2,3,6-tetrahyrdro-pyridine (MPTP), a compound known to cause PD in mice by inducing mitochondrial dysfunction and neuronal apoptosis, reduces the expression of TRPC1 in the SNpc. A similar result was observed in PC12 cells incubated with MPP+. The same study also found that TRPC1 over-expression increases the survival of PC12 cells incubated with MPP+ by preserving mitochondrial membrane potential and regulating the expression of the anti-apoptotic genes Bcl2 and Bcl-xl (Selvaraj et al., 2009). Of note, the authors highlighted in their study that TRPC1 over-expression only partly restores mitochondrial membrane potential and neuronal survival.
The contribution of other TRPCs to PD has also been investigated. Analysis of TRPC3 expression patterns revealed that the TRPC3 protein is increased in the SNpc following exposure to MPTP (Selvaraj et al., 2009). On the other hand, no alterations in TRPC3 levels were noted in DA neurons from PD patients (Sun et al., 2017). Of note, these controversial data on TRPC3 expression have been obtained in different experimental settings. Therefore, TRPC3’s role in PD cannot be overruled. Also, it is possible that other TRPC channels and their complexes may contribute to changes in neuronal survival in PD.
In this context, it is important to highlight the complexes formed by TRPC1 with TRPC5. Although no studies have yet investigated these complexes in PD, they have been pointed as mediators of other neurodegenerative diseases such as Huntington’s. In a recent report, it was demonstrated that intracellular oxidized glutathione activates TRPC5 in striatal cells of Huntington’s disease (Q111 cells). The same study showed that upon oxidative stress, TRPC5-mediated Ca2+ influx leads to increased cytosolic Ca2+ levels and activation of the calpain-caspase pathway, leading to apoptosis of striatal neurons (Hong et al., 2015). In parallel, as observed for PD, TRPC1 protein and mRNA expression is down-regulated in Huntington’s striatal cells favoring the formation of TRPC5 heterotetramers in these cells (Hong et al., 2015). These results reinforce the protective role of TRPC1 in neurodegenerative diseases and shed light on the deleterious importance of TRPC5 in neuronal survival.
From the best of our knowledge, no studies have yet investigated the association between TRPC channels and RNI in PD, highlighting the need for further studies to fill this gap of information.
Future Perspectives
Herein, we presented evidence and discussed the importance of TRPC channels in the recognition and regulation of oxidative and nitrosative stress responses, as well as their contributions to PD. The recent advances in the field of TRPC channels, in particular the protective functions of TRPC1 and the deleterious role of TRPC5 in PD, highlight their importance as pharmacological targets in treating neurodegenerative diseases. Considering the ability of TRPC channels to assemble as homo- and heterotetramers with channels of the same subfamily and also as members of other subfamilies of TRPs, and the lack of antagonists and agonists capable of selectively differentiating the individual actions of each one of these channels, their targeting of PD may become a difficult task. Therefore, efforts need to be made in order to develop effective and more selective pharmacological tools to investigate TRPC channels. This will be an essential step to achieve a broader knowledge of the pathophysiological roles of their different assembly modes and establish their definite importance in PD.
Statements
Author contributions
DM-F, NO, LS, and EF contributed to the conception and design and drafted and critically revised the manuscript. All authors gave final approval and agreed to be accountable for all aspects of the work.
Funding
This work was supported by Conselho Nacional de Desenvolvimento Científico e Tecnológico (CNPq; 305676/2019-9 and 408053/2018-6), Instituto de Pesquisa Pelé Pequeno Príncipe, and INCT-INOVAMED. NO is a Ph.D. student receiving a grant from the Coordenação de Aperfeiçoamento de Pessoal de Nível Superior (CAPES), and LS is a MSc student receiving a grant from Instituto de Pesquisa Pelé Pequeno Príncipe.
Conflict of interest
The authors declare that the research was conducted in the absence of any commercial or financial relationships that could be construed as a potential conflict of interest.
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Summary
Keywords
TRPC channels, Parkinson’s disease, oxidative stress, dopamine release, neuronal apoptosis
Citation
Maria-Ferreira D, de Oliveira NMT, da Silva LCM and Fernandes ES (2020) Evidence of a Role for the TRPC Subfamily in Mediating Oxidative Stress in Parkinson’s Disease. Front. Physiol. 11:332. doi: 10.3389/fphys.2020.00332
Received
23 December 2019
Accepted
23 March 2020
Published
08 May 2020
Volume
11 - 2020
Edited by
Nady Braidy, University of New South Wales, Australia
Reviewed by
José Javier López Barba, University of Extremadura, Spain; Enrique Soto, Meritorious Autonomous University of Puebla, Mexico
Updates
Copyright
© 2020 Maria-Ferreira, de Oliveira, da Silva and Fernandes.
This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
*Correspondence: Elizabeth Soares Fernandes, elizabeth.fernandes@pelepequenoprincipe.org.br; lizbeth_fernandes@yahoo.co.uk
This article was submitted to Membrane Physiology and Membrane Biophysics, a section of the journal Frontiers in Physiology
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