Submitted Successfully!
To reward your contribution, here is a gift for you: A free trial for our video production service.
Thank you for your contribution! You can also upload a video entry or images related to this topic.
Version Summary Created by Modification Content Size Created at Operation
1
Abdelhakim BOUYAHYA
 -- 4369 2022-08-12 19:59:59 |
2 format
Jason Zhu
 -9 word(s) 4360 2022-08-15 04:11:18 |

Video Upload Options

We provide professional Video Production Services to translate complex research into visually appealing presentations. Would you like to try it?
No, upload directly Yes

Confirm

Are you sure to Delete?
Yes No
Cite
If you have any further questions, please contact Encyclopedia Editorial Office.
Aboulaghras, S.;  Gallo, M.;  Saad, B.;  Mechchate, H.;  Benali, T.;  Sahib, D.N.;  Jaouadi, I.;  Omari, N.E.;  Punia, S.;  Lorenzo, J.M.; et al. Biological and Pharmacological Properties of Pinosylvin. Encyclopedia. Available online: https://encyclopedia.pub/entry/26110 (accessed on 23 December 2024).
Aboulaghras S,  Gallo M,  Saad B,  Mechchate H,  Benali T,  Sahib DN, et al. Biological and Pharmacological Properties of Pinosylvin. Encyclopedia. Available at: https://encyclopedia.pub/entry/26110. Accessed December 23, 2024.
Aboulaghras, Sara, Monica Gallo, Bakrim Saad, Hamza Mechchate, Taoufiq Benali, Dr. Nargis Sahib, Imane Jaouadi, Nasreddine El Omari, Sneh Punia, Jose Manuel Lorenzo, et al. "Biological and Pharmacological Properties of Pinosylvin" Encyclopedia, https://encyclopedia.pub/entry/26110 (accessed December 23, 2024).
Aboulaghras, S.,  Gallo, M.,  Saad, B.,  Mechchate, H.,  Benali, T.,  Sahib, D.N.,  Jaouadi, I.,  Omari, N.E.,  Punia, S.,  Lorenzo, J.M.,  Zengin, G.,  Montesano, D., & Bouyahya, A. (2022, August 12). Biological and Pharmacological Properties of Pinosylvin. In Encyclopedia. https://encyclopedia.pub/entry/26110
Aboulaghras, Sara, et al. "Biological and Pharmacological Properties of Pinosylvin." Encyclopedia. Web. 12 August, 2022.
Biological and Pharmacological Properties of Pinosylvin
Edit
This entry is adapted from the peer-reviewed paper 10.3390/plants11121541

Pinosylvin (3,5-dihydroxy-trans-stilbene), a natural pre-infectious stilbenoid toxin, is a terpenoid polyphenol compound principally found in the Vitaceae family in the heartwood of Pinus spp. (e.g., Pinus sylvestris) and in pine leaf (Pinus densiflora). It provides defense mechanisms against pathogens and insects for many plants. Stilbenoids are mostly found in berries and fruits but can also be found in other types of plants, such as mosses and ferns. As evidenced in several investigations, pinosylvin was found to exhibit a wide range of biological and pharmacological properties, including antimicrobial, anti-inflammatory, antioxidant, anticancer, neuroprotective, and anti-allergic effects.

pinosylvin pharmacological property signaling pathway

1. Antimicrobial Activity

With the increasing problems of the persistence and emergence of microbial resistance, much attention was given to the identification of new antimicrobial drugs derived from natural bioactive compounds [1][2][3][4]. Pinosylvin has been widely investigated for its health benefits and biological activities, including its antimicrobial effects. Lee et al. [5] showed the role of pinosylvin as an antimicrobial agent against various human pathogens, including Gram-positive (S. aureus) and Gram-negative (E. coli) bacteria, fungi (C. albicans), and yeasts (S. cerevisiae). C. albicans and S. cerevisiae appeared to be more sensitive to pinosylvin with minimal inhibitory concentration (MIC) values of 62.5 and 125 µg/mL, respectively, while the MIC for E. coli and S. aureus was 250 µg/mL. Moreover, pinosylvin extracted from the knot wood and bark of different Pinus species exhibits potent antimicrobial activity, effectively inhibiting the growth of a broad spectrum of pathogenic strains, including Bacillus cereus, S. aureus, L. monocytogenes, L. plantarum, E. coli, S. infantis, P. fluorescens, C. albicans, S. cerevisiae, Aspergillus fumigatus, and Penicillium brevicompactum, with inhibition diameters ranging from 19 ± 1 to 101 ± 6 mm. Sousa and collaborators [6] evaluated the potential interaction between pinosylvin and four antibiotics (tetracycline, chloramphenicol, erythromycin, and ciprofloxacin) against Arcobacter butzleri using checkerboard titration assays. Based on FICI values, no synergistic effects were observed for pinosylvin/four antibiotic combinations, while pinosylvin showed additive interactions on all the tested antibiotics, except ciprofloxacin. In addition, these researchers investigated the ability of pinosylvin to modulate the efflux pump activity using ethidium bromide (EtBr) accumulation assays. The results showed that pinosylvin causes a higher intracellular accumulation of EtBr, elucidating that it may attenuate the activity of efflux pumps (EPs) [6]. Overall, these findings shed light on the use of pinosylvin as a resistance modulator to control the decreasing susceptibility of A. butzleri to antibiotics and suggest the potential of pinosylvin as an efflux pump inhibitor. Furthermore, prenylation of stilbenes, including pinosylvin has been shown to enhance their antibacterial activity, which is explained by MIC values. In this regard, Bruijn et al. [7] demonstrated that prenylated pinosylvin derivatives isolated from Rhizopus extract exhibit potent antimicrobial activity against methicillin-resistant Staphylococcus aureus (MRSA), especially chiricanine A with a MIC value of 12.5 µg/mL.
As a natural compound, pinosylvin has potential applications in the development of antimicrobial food packaging systems due to its inherent antimicrobial activity, especially against Campylobacter spp. [8][9]. Indeed, it has been shown that pinosylvin or its inclusion complexes (ICs) with modified cyclodextrins (hydroxypropyl-b-cyclodextrin and hydroxypropyl-g-cyclodextrin) were able to inhibit the growth of Campylobacter jejuni and Campylobacter coli American type culture collection (ATTC) reference strains and clinical isolates [10]. The MIC values were between 25 to 50 mg/mL for the pure compound and between 16 and 64 mg/mL for the ICs. Furthermore, time-kill assays showed that pinosylvin ICs exhibit bactericidal action on both Campylobacter species at 37 °C and even at 4 or 20 °C [10]. Flow cytometric analysis shows that the mechanism behind this bactericidal action may mainly involve membrane damage mediated by the impairment of various cellular functions such as membrane polarization, permeability, and efflux activity [10]. These promising data make these pinosylvin ICs valuable lead compounds used in active food packaging to eradicate Campylobacter spp. in fresh poultry products. In this context, in their recent findings, the same researchers demonstrated the role of coated pads containing pinosylvin ICs in controlling fresh chicken meat from Campylobacter contamination [9]. The above-mentioned compound exhibited effective in vitro bactericidal activity against C. jejuni with more than 99% colony count inhibition, even at the lowest concentrations (0.08 mg/cm2). In vivo tests on chicken exudates and chicken fillets have also shown that these active pads exhibit promising anti-Campylobacter activity at 37 °C and 4 °C [9]. Additionally, coated pads-pinosylvin ICs are also effective against other major chicken foodborne bacteria, suggesting future uses of this coating as a new alternative to control the microbial growth in packaged chicken meat [9].
On the other hand, the antifungal potential of pinosylvin and pinosylvin monomethyl ether isolated from pine knot extract was assessed in vitro against Plasmopara viticola. This showed that pinosylvin exhibits promising antimildew properties, inducing significant inhibition of zoospore mobility (IC50 = 34 μM) and mildew development (IC50 = 23 μM) [11]. These findings are corroborated by those described by other researchers. Indeed, pinosylvin and pinosylvin monomethyl ether from Pinus trees have already demonstrated significant antifungal effects against white rot (Trametes versicolor and Phanerochaete chrysosporium) and brown-rot (Neolentinus lepideus, Gloeophyllum trabeum, and Postia placenta) [12] fungi. Furthermore, pinosylvin from the methylene chloride fraction of Pinus densiflora showed effective antifungal activity against plant pathogens such as Rhizoctonia solani AG1-1B, R. solani AG2-2IV, R. cerealis, and S. homoeocarpa. S. homoeocarpa showed the highest sensitivity with the lowest mean EC50 value (8.426 μg/mL), whereas among the Rhizoctonia pathogens, R. cerealis had the highest mean EC50 value (99.832 μg/mL). Pinosylvin could be a valuable lead compound for developing new effective and ecofriendly antifungal agents [13].

2. Anti-Inflammatory Activity

Over the past decades, several scientists have dedicated their efforts to developing novel anti-inflammatory drugs from natural molecules to overcome the serious and excessive side effects of current drugs [14][15]. As a natural molecule, pinosylvin has been extensively investigated (in vitro and in vivo) for its excellent potential anti-inflammatory effects.
Research results by Park and colleagues (2005) [16] showed that pinosylvin downregulates the production of proinflammatory mediators such as prostaglandin E2 (PGE2) and nitric oxide (NO) in a dose-dependent manner. This effect was directly related to COX and inducible nitric oxide synthase (iNOS) inhibition. Moreover, pinosylvin significantly inhibited other key inflammatory enzymes, interleukin 6 (IL6) (IC50 = 32.1 µM) and monocyte chemotactic protein 1 (MCP1) (IC50 = 38.7 µM) [17]. Additionally, the in vivo investigation measuring carrageenan-induced paw edema in male C57BL/6 mice showed that pinosylvin at a dose of 30 mg/kg significantly reduced the inflammatory response by downregulating the production of inflammatory cytokines IL6, MCP1, and NO compared to an LY294002-treated group [17]. The similar anti-inflammatory effects of pinosylvin to those of the known commercial phosphatidylinositol-3 kinase (PI3K) inhibitor LY294002 suggest that these effects may be mediated by the inhibition of the PI3K/Akt pathway.
Furthermore, treatment with pinosylvin was shown to significantly inhibit stimulation-induced NO production of murine macrophages with lipopolysaccharide (LPS) in a dose-dependent manner, with an IC50 value of 39.9 μM compared to reference L-NMMA (IC50 = 30.7 μM) [18]. In addition, pinosylvin suppressed iNOS gene expression via downregulation of interferon regulatory factor 3 (IRF-3) and interferon-E (IFN-E) expression related to TIR-domain-containing adapter-inducing interferon-β (TRIF) mediated signaling pathway. These events were then associated with the suppression of JAK kinase phosphorylation, which decreased the phosphorylation of signal transducer and activator of transcription-1, one of the iNOS transcriptional activators [18].
Since the substitution patterns of the trans-stilbene have been shown to enhance various biological properties, Park et al. [19] assessed the substitutions of the dihydroxy group in pinosylvin with different lipophilic derivatives on LPS-induced RAW 264.7 cells. The results showed that the synthesized pinosylvin derivatives, especially 3,5-dimethoxy-trans-stilbene and 3-hydroxy-5-benzyloxy-trans-stilbene, significantly suppress COX-2 mRNA expression-mediated PGE2 production. On the other hand, pinosylvin treatment at doses of 5 and 10 µM greatly enhanced human RPE cells from oxidative stress. The expression levels of heme oxygenase-1 (HO-1), an enzyme with anti-inflammatory and immunomodulatory activities, were upregulated by pinosylvin treatment and markedly correlated with cell survival [3]. These findings demonstrated the role of pinosylvin treatment in the protection against oxidative stress, induction of HO-1 expression in human RPE cells and, therefore, potential health promotion against oxidative stress and aging-related diseases such as AMD and Alzheimer’s disease [20].
Interestingly, in addition to its ability to reduce the concentration of reactive oxygen and nitrogen species, pinosylvin has been shown to potentiate the therapeutic efficacy of methotrexate (MTX), an immunosuppressive drug in arthritis treatment. Indeed, Bauerova et al. [21] showed that the treatment of AA in rats with pinosylvin in combination with MTX (Orale doses of 50 mg/kg b.w. for PIN and 0.4 mg/kg b.w. for MTX) significantly reduced oxidative stress via upregulation of HO-1 expression in the lungs and reduction in plasmatic thiobarbituric acid reactive substances (TBARS) as well as markedly decreased lipoxygenase (LOX) activity in the lungs.
Ankyrin subtype 1 protein (TRPA1) has been involved in various inflammatory responses. Its suppression may provide promising targets for the treatment of many pathological conditions related to acute pain, inflammation, and hyperalgesia. In this respect, Moilanen and colleagues (2018) conducted their research to investigate the effect of pinosylvin on TRPA1 in vitro by measuring transient receptor potential ankyrin subtype 1 protein (TRPA1)-mediated Ca2+ influx and membrane currents. The findings reported a dose-dependent inhibitory effect of pinosylvin (IC50 = 16.7 μM) on AITC-induced TRPA1-mediated responses. In vivo experiments using AITC-induced paw inflammation as a model demonstrated that pinosylvin treatment effectively reduced the formation of paw edema, attenuating the production of inflammatory cytokine IL-6 at the site of the inflammation [22].

3. Antioxidant Activity

The antioxidant activity of pinosylvin was extensively studied by different researchers, not only as an isolated study case (ORAC, ABTS+, and FRAP in vitro assays), but in relation to many diseases such as rheumatoid arthritis, age-related diseases, and oligoasthenospermia [21][23][24][25].
Bauerova et al. [21] assessed the impact of the treatment on selected parameters in AA (Alko, alcohol) rats when administered pinosylvin for 28 days as a monotherapy and in combination with methotrexate (MTX). The experiment included healthy controls, untreated AA, and AA given 50 mg/kg b.w. pinosylvin daily p.o. AA was monitored using hind paw volume, C-reactive protein, MCP-1 activity, TBARS, F2-isoprostanes in plasma, g-glutamyltransferase activity in the spleen, lung LOX activity, HO-1 activity, and nuclear factor kappa B (NF-κB). Pinosylvin monotherapy enhanced NF-κB activation in the liver and lung, HO-1 expression and LOX activity in the lung, plasma MCP-1 levels (on the 14th day), and plasmatic levels of F2-isoprostanes. The reduction in OS (an increase in HO-1 expression in the lungs and a reduction in plasmatic TBARS) and decrease in LOX activity in the lungs were substantial contributions of pinosylvin.
The pathophysiology of rheumatoid arthritis is strongly influenced by oxygen metabolism. Patients with rheumatoid arthritis have an altered antioxidant defense capacity barrier, which links oxidative stress, inflammation, and the immune system. Drafi et al. [23] investigated the impact of pinosylvin in monotherapy for the treatment of AA. Indeed, pinosylvin (30 mg/kg body mass daily per os) was provided in monotherapy to rats with AA for 28 days. In rats, parameters such as changes in hind paw volume and arthritis score were measured as indicators of destructive arthritis-related clinical changes, with determination of oxidative indicators, plasmatic levels of TBARS, and the latency of Fe2+-induced lipid peroxidation (tau-FeLP) in plasma and the brain. CRP levels in the blood and glutamyltransferase (GGT) activity in the spleen and joints have been used as inflammatory indicators. Pinosylvin failed to significantly reduce the arthritic score in arthritic animals compared to untreated arthritic animals. Administration of pinosylvin somewhat reduced GGT activity in the spleen. Pinosylvin was less effective in reducing oxidative damage as determined by plasma TBARS levels.
Jančinová et al. [26] conducted their investigation to evaluate the effects of natural stilbenoid pinosylvin on neutrophil activity in vitro and experimental arthritis and to determine whether protein kinase C (PKC) activation functioned as an assumed target of pinosylvin action. The oxidative burst was assessed using enhanced chemiluminescence from neutrophils from fresh human blood. Flow cytometry was used to analyze neutrophil viability, and Western blotting was used to determine PKC phosphorylation. Adjuvant arthritis was produced in Lewis rats using heat-killed Mycobacterium butyricum, and the animals received pinosylvin (30 mg/kg, p.o.) daily for 21 days after arthritis was established. Pinosylvin (10 and 100 µmol/L) greatly reduced the generation of extracellular and intracellular oxidants and efficiently inhibited PKC activation triggered by phorbol myristate acetate (0.05 µmol/L) in isolated human neutrophils. However, inhibition did not occur due to neutrophil damage or increased apoptosis. Blood neutrophil counts were considerably elevated in arthritic rats, as was whole blood chemiluminescence (spontaneous and PMA-stimulated). The injection of pinosylvin reduced the number of neutrophils and considerably lowered the number of reactive oxygen species in blood. Pinosylvin is a potent inhibitor of neutrophil activity and has the potential to be beneficial as an adjunctive drug in conditions related to chronic inflammation. The observed results qualified pinosylvin as an efficient inhibitor of neutrophil activity, suggesting that it could be beneficial as a supplemental therapy in pathological situations related to chronic inflammation.
ARPE-19 cells were treated with pinosylvin (5 µM) for 6 h, and mRNA was extracted at four timepoints (2 h, 6 h, 12 h, and 24 h) to determine changes in the expression of Nrf2, sequestosome 1 (p62/SQSTM1), HO-1, and glutathione S-transferase pi 1 (GSTP1). To further understand the molecular mechanism underlying pinosylvin-mediated protection, ARPE-19 cells were transfected with p62 and Nrf2 siRNAs for 24 h, and the roles of p62, Nrf2, and its target gene HO-1 in protection against oxidative stress were investigated using quantitative real-time PCR (qRT-PCR) and cell viability assay. At doses of 5 and 10 µM, pinosylvin dramatically improved cell survival against oxidative stress and increased the expression of HO-1, an enzyme with antioxidant, anti-inflammatory, and immunomodulatory capabilities, and was substantially linked to cell survival. However, pinosylvin treatment did not influence the expression of Nrf2 or its target genes, p62 or GSTP1, while having a strong effect on the expression of HO-1, another Nrf2-controlled gene. RNA interference study verified the importance of Nrf2 and HO-1 in PS-mediated protection against oxidative stress, whereas the contribution of p62 seemed minor at the levels of gene expression and cell viability. According to the findings, pinosylvin therapy protects against oxidative stress by inducing HO-1 in human RPE cells.
Considering that chronic oxidative stress eventually leads to protein aggregation in combination with impaired autophagy, as seen in AMD, Tamminen et al. [27] investigated the effects of commercial natural pinosylvin extract, Retinari™, on electroretinogram, optical coherence tomogram, autophagic activity, antioxidant capacity, and inflammation markers in their study. For 10 weeks before the experiments, wild-type and NFE2L2 knockout mice were given either ordinary or Retinari™ chow. Retinari™ therapy restored many retinal functions, with a- and b-wave amplitudes in electroretinogram responses being considerably preserved. Furthermore, this treatment reduced retinal thinning in NFE2L2 mutant animals that showed lower ubiquitin-tagged protein accumulation and local overexpression of complement factor H and the antioxidant enzymes superoxide dismutase 1 and catalase. Accordingly, in the NFE2L2 KO illness model, the therapy decreased chronic oxidative stress while maintaining retinal function and shape. The findings suggest that taking pinosylvin supplements may reduce the likelihood of developing age-related macular degeneration and halt its development.
Pinosylvin, a resveratrol analogue developed by Wang et al. [25], has been thoroughly studied in the treatment of oligoasthenospermia. They explored the molecular basis for improved sperm parameters in a mouse model of oligoasthenospermia produced using busulfan (BUS) therapy at 6 mg/kg b.w. Mice were given varying concentrations of pinosylvin daily for two weeks after receiving busulfan treatment. Then, epididymal sperm concentration and motility were evaluated and testicular histology was performed. Levels of serum hormones, including testosterone (T), luteinizing hormone (LH), and follicle-stimulating hormone (FSH), were tested using ELISA kits designed for each hormone. RNA sequencing was used to establish testicular mRNA expression profiles. Quantitative real-time PCR, Western blotting, and ELISA were used to confirm these results. After BUS therapy, pinosylvin improved epididymal sperm concentration and motility, increased testosterone levels, and facilitated morphological testicular recovery. The antioxidant glutathione peroxidase 3 dramatically decreased oxidative stress through the Nrf2/ARE-dependent antioxidant. Pinosylvin improved oligoasthenospermia in this mouse model by reducing oxidative stress via the Nrf2-ARE pathway.

4. Anticancer Activity

Pinosylvin is a functional compound in Pinus species known to exhibit potential cancer chemopreventive activity [28][29], even at low concentrations [30]. Based on that, the main concern of the researchers was to reveal its underlying molecular mechanisms [31] as well as its potential against resistant types of cancer [32] and metastasis [33].
The effects of pinosylvin on the migration and invasion of human oral cancer cells remain unknown, as do the underlying processes. Chen et al. [28] evaluated the effects of varying concentrations of pinosylvin (0–80 μM) on the metastatic and invasive capacities of SAS, SCC-9, and HSC-3 cells. Pinosylvin suppressed matrix metalloproteinase-2 (MMP-2) enzyme activity and lowered its protein level in Western blotting and gelatin zymography assays but enhanced the expression of tissue inhibitors of metalloproteinase-2 (TIMP-2). Pinosylvin also inhibited the migration of oral cancer cells (SAS, SCC-9, and HSC-3) in the wound healing experiment and using the transwell technique. Furthermore, this substance inhibited the phosphorylation of ERK1/2 protein expression in SAS and SCC-9 cells.
These findings suggest that pinosylvin may be a promising anticancer drug to prevent oral cancer spread. Chuang et al. [34] aimed to examine the functional role of pinosylvin in nasopharyngeal carcinoma (NPC) cells (NPC039, NPCBM, and RPMI 2650). According to gap-closure and transwell assays, pinosylvin reduced the migration and invasion of NPC039 and NPCBM cells at increasing doses. It not only inhibited the activity of MMP2 enzymes, but also reduced the expression levels of MMP2 and MMP9 proteins. Pinosylvin inhibited the expression of vimentin and N-cadherin while dramatically increasing that of zonula occludens-1 and E-cadherin in NPC cells. It also inhibited the invasion and migration of NPC039 and NPCBM cells by modulating the p38, ERK1/2, and JNK1/2 pathways. According to the findings of this investigation, pinosylvin suppressed the migration and invasion of NPC cells.
There are currently few therapeutic options for castration-resistant prostate cancer (CRPC). A high-throughput screen of 4910 drugs and drug-like molecules was used in a study conducted by Ketola et al. [32] to detect antiproliferative substances on prostate cancer after androgen ablation therapy. The effects of compounds on cell survival were examined in androgen-ablated LNCaP prostate cancer cells, LNCaP cells cultured in androgens, and two non-malignant prostate epithelial cells (RWPE-1 and EP156T). Pinosylvin methyl ether (PSME) was a strong inhibitor of androgen-ablated LNCaP cell growth in cancer-specific antiproliferative drug validation assays. A genome-wide gene expression study in PSME-exposed cells was undertaken to obtain insight into growth inhibitory mechanisms in CRPC. In androgen-depleted LNCaP cells, pinosylvin affected the expression of genes involved in cell cycle, steroid, and cholesterol production. Reduced androgen-receptor expression and prostate-specific antigen in PSME exposed cells verified the decrease in androgen signaling. Taken together, comprehensive screen revealed PSME as a new antiproliferative agent for CRPC. These findings provide a solid foundation for future preclinical and clinical investigations on CRPC treatment.
The capacity of pinosylvin to modify oxidative stress in human RPE cells was investigated by Koskela et al. [20]; by first evaluating the range of PS toxicity by exposing ARPE-19 cells to PS doses of 0.1–200 μM for 24 h, followed by a cell survival test. The ARPE-19 cells were then preincubated in pinosylvin for 24 h before being exposed to hydroquinone (HQ) without pinosylvin for another 24 h. Pinosylvin therapy at doses of 5 and 10 μM greatly improved cell survival against oxidative stress. Pinosylvin therapy elevated the production of HO-1, an enzyme with antioxidant, anti-inflammatory, and immunomodulatory abilities, which is positively associated with cell survival. Pinosylvin treatment did not influence the expression of Nrf2 or its target genes, p62 or GSTP1, while having a strong effect on the expression of HO-1, another Nrf2-controlled gene. RNA interference investigation verified the importance of Nrf2 and HO-1 in pinosylvin-mediated oxidative stress protection, whereas the contribution of p62 seemed minor at the gene expression and cell viability levels. The findings show that pinosylvin therapy protects against oxidative stress by inducing HO-1 in human RPE cells.
Pinosylvin is known to have an anti-inflammatory effect on endothelial cells. Hence, Kwon et al. [35] attempted to understand the exact process in their research. Pinosylvin was tested to determine if it increased COX or lipoxygenase (LOX) activity in THP-1 and U937 cells. Pinosylvin significantly increased LOX activity without affecting COX activity. Furthermore, it increased ALOX15 mRNA and protein levels, demonstrating that pinosylvin-induced LOX activity is due to increased ALOX15 expression. Pinosylvin appeared to enhance ERK and JNK phosphorylation in this cell signaling investigation. ERK and JNK inhibitors were observed to reduce ALOX15 expression and LPS-induced apoptosis produced by pinosylvin. Finally, pinosylvin promoted apoptosis in LPS-preconditioned leukocytes by increasing ALOX15 expression via ERK and JNK.
In cancer patients, metastases are a major cause of mortality [31]. Previous research revealed that pinosylvin has a potential cancer chemopreventive effect and suppresses the development of many human cancer cell lines by regulating cell cycle progression. Researchers investigated the possible antimetastatic action of pinosylvin using in vitro and in vivo models. In cultured human fibrosarcoma HT1080 cells, pinosylvin inhibited the production of MMP-2, MMP-9, and membrane type 1-MMP. Pinosylvin has also been reported to interfere with HT1080 cell migration in colony dispersal and wound healing methods. Pinosylvin (10 mg/kg b.w., intraperitoneal treatment) effectively reduced tumor nodule growth and tumor weight in lung tissues in an in vivo model of spontaneous lung metastasis following injection of CT26 colon carcinoma into BALB/c mice. The study of tumors in lung tissue revealed that the antimetastatic impact of pinosylvin was associated with a decrease in the production of MMP-9 and COX-2 and the activation of ERK1/2 and Akt. These findings show that pinosylvin, via modulating MMPs, might be an effective inhibitor of tumor cell metastasis.
Pinosylvin, at high concentrations (100 μmol/L), was previously reported to promote cell death in bovine aortic endothelial cells. In the investigation conducted by Park et al. [30], it was attempted to reveal the role of pinosylvin in apoptosis, autophagy, and necrosis. Pinosylvin enhanced caspase-3 activation, nuclear condensation, and the “flip-flop” of phosphatidylserine at high concentrations, suggesting that pinosylvin triggers apoptosis. On the other hand, pinosylvin was found to suppress necrosis, a post-apoptotic process, based on flow cytometry data acquired using double-staining with annexin V and propidium iodide. Pinosylvin promoted LC3 conversion from LC3-I to LC3-II and p62 degradation, both of which are essential indications of autophagy. Furthermore, pinosylvin appeared to stimulate AMP-activated protein kinase (AMPK), and an AMPK inhibitor significantly reduced LC3 conversion. Pinosylvin reversed the inhibitory impact of an AMPK inhibitor. These findings imply that pinosylvin causes autophagy by activating AMPK. Additionally, an autophagy inhibitor was shown to enhance necrosis, which was later restored with pinosylvin, but the caspase-3 inhibitor had no impact on necrosis. These results show that pinosylvin-induced autophagy inhibits necrotic progression in endothelial cells.
Skinnider and Stoessl [36] investigated the effects of phytoalexins lubimin, (-)-maackiain, pinosylvin, and related chemicals dehydroloroglossol and hordatine M on the development of the human lymphoblastoid cell lines Molt and Raji. The researchers found that (-)-maackiain, pinosylvin, and dehydroloroglossol all significantly inhibited cell proliferation. The inhibition of [3H] thymidine and [3H] leucine absorption in pinosylvin and dehydroloroglossol was studied and shown to be effective. Phytoalexins and similar chemicals are abundant in plants and may serve as a source of antineoplastic drugs.
Several tests were carried out in the Song et al. [37] investigation to determine how high concentrations of pinosylvin (50 μM) promotes endothelial cell death. Pinosylvin, at high concentrations, was demonstrated to promote endothelial cell death by increasing caspase-3 activity, phosphatidylserine flip-flop, and nuclear fragmentation. They discovered that high concentrations of pinosylvin increased caspase-3 activity, which was amplified by serum deprivation or treatment with 100 μM etoposide. They also found that high concentrations of pinosylvin stimulated the activation of c-Jun N-terminal kinase (JNK) and endothelial nitric oxide synthase (eNOS). They then conducted a series of tests to determine which signaling molecule was important in pinosylvin-induced apoptosis. Finally, they found that SP-600125, a JNK inhibitor, inhibited pinosylvin-induced endothelial cell death, whereas L-NAME, an eNOS inhibitor, had no impact. These findings suggest that JNK is implicated in pinosylvin-induced apoptosis. At high concentrations, pinosylvin promotes cell death through JNK activation.
Resveratrol (pinosylvin analogue) has been shown to promote cell death in leukemia cells at high doses (50–100 μmol/L). Song et al. [38] foudn that cell death was significantly increased from 50 to 100 μmol/L pinosylvin in THP1 and U937 cells. Pinosylvin also induced caspase-3 activation, phosphatidylserine flipflop, LC3II accumulation, LC3 puncta, and p62 degradation in THP1 and U937 cells. These findings suggest that pinosylvin-induced cell death may occur through apoptosis and autophagy. Furthermore, researchers discovered that pinosylvin inhibits AMP-activated protein kinase 1 (AMPK1) in leukemia cells. As a result, a link was found between AMPK1 downregulation and leukemic cell death. Inhibition of AMPK1 reduces pinosylvin-induced apoptosis and autophagy in leukemia cells, indicating that AMPK is a crucial regulator of leukemia cell death. Moreover, when AMPK1-overexpressed leukemia cells were compared to vector-transfected cells, the progression of autophagy and apoptosis were inhibited by pinosylvin. Overexpression of AMPK1 increased cell death, but caspase-3 inhibitors or autophagy inhibitors significantly reduced pinosylvin-induced cell death. These findings imply that reducing AMPK1 by pinosylvin increases cell death by apoptosis and autophagy in leukemic cells.

5. Neuroprotective Activity

Based on the fact that neuroprotection is a typical technique to reduce the damage of cerebral ischemia, Xu et al. [39] set out to assess the neuroprotective efficacy of pinosylvin. Pinosylvin therapy reduced cell death in OGD/R-damaged PC12 cells and enhanced brain function in MCAO/R rats. Pinosylvin decreased the number of depolarized cells (low mitochondrial membrane potential) in OGD/R-damaged PC12 cells, implying a role in improving mitochondrial function. Further research revealed that pinosylvin triggers PINK1/Parkin-mediated protective mitophagy and activates the Nrf2 pathway, as shown by increased protein levels of LC3 II, Beclin1, PINK1, and Parkin, as well as Nrf2 translocation to the nucleus. Pinosylvin provided neuroprotection by triggering PINK1/Parkin-mediated mitophagy to eliminate damaged mitochondria and by activating the Nrf2 pathway to attenuate oxidative stress-induced mitochondrial dysfunction.

6. Anti-Allergic Activity

An extract of the branches of H. dulcis (containing pinosylvin) was tested for its anti-allergic potential using the rat basophilic leukemia (RBL)-2H3 cell line and the passive cutaneous anaphylaxis (PCA) mouse model using various assays [33]. The extract inhibited hexosaminidase secretion (indicating degranulation) and histamine release in antigen-stimulated RBL-2H3 cells, with decreased expression and production of the inflammatory mediators COX-2 and PGE2, as well as the cytokines IL-4 and TNF-α, and suppression of NF-κB activation indicating the potential of the extract as a strong antiallergic agent.

References

  1. Sharifi-Rad, J.; Dey, A.; Koirala, N.; Shaheen, S.; El Omari, N.; Salehi, B.; Goloshvili, T.; Silva, N.C.C.; Bouyahya, A.; Vitalini, S. Cinnamomum Species: Bridging Phytochemistry Knowledge, Pharmacological Properties and Toxicological Safety for Health Benefits. Front. Pharmacol. 2021, 12, 600139.
  2. Bouyahya, A.; Chamkhi, I.; Benali, T.; Guaouguaou, F.-E.; Balahbib, A.; El Omari, N.; Taha, D.; Belmehdi, O.; Ghokhan, Z.; El Menyiy, N. Traditional Use, Phytochemistry, Toxicology, and Pharmacology of Origanum majorana L. J. Ethnopharmacol. 2021, 265, 113318.
  3. Bouyahya, A.; El Omari, N.; Elmenyiy, N.; Guaouguaou, F.-E.; Balahbib, A.; El-Shazly, M.; Chamkhi, I. Ethnomedicinal Use, Phytochemistry, Pharmacology, and Toxicology of Ajuga iva (L.) Schreb. J. Ethnopharmacol. 2020, 258, 112875.
  4. Marmouzi, I.; Bouyahya, A.; Ezzat, S.M.; El Jemli, M.; Kharbach, M. The Food Plant Silybum marianum (L.) Gaertn.: Phytochemistry, Ethnopharmacology and Clinical Evidence. J. Ethnopharmacol. 2021, 265, 113303.
  5. Lee, S.K.; Lee, H.J.; Min, H.Y.; Park, E.J.; Lee, K.M.; Ahn, Y.H.; Cho, Y.J.; Pyee, J.H. Antibacterial and Antifungal Activity of Pinosylvin, a Constituent of Pine. Fitoterapia 2005, 76, 258–260.
  6. Sousa, V.; Luís, Â.; Oleastro, M.; Domingues, F.; Ferreira, S. Polyphenols as Resistance Modulators in Arcobacter Butzleri. Folia Microbiol. 2019, 64, 547–554.
  7. De Bruijn, W.J.; Araya-Cloutier, C.; Bijlsma, J.; de Swart, A.; Sanders, M.G.; de Waard, P.; Gruppen, H.; Vincken, J.-P. Antibacterial Prenylated Stilbenoids from Peanut (Arachis hypogaea). Phytochem. Lett. 2018, 28, 13–18.
  8. Plumed-Ferrer, C.; Väkeväinen, K.; Komulainen, H.; Rautiainen, M.; Smeds, A.; Raitanen, J.-E.; Eklund, P.; Willför, S.; Alakomi, H.-L.; Saarela, M. The Antimicrobial Effects of Wood-Associated Polyphenols on Food Pathogens and Spoilage Organisms. Int. J. Food Microbiol. 2013, 164, 99–107.
  9. Silva, F.; Domingues, F.C.; Nerín, C. Control Microbial Growth on Fresh Chicken Meat Using Pinosylvin Inclusion Complexes Based Packaging Absorbent Pads. LWT 2018, 89, 148–154.
  10. Silva, F.; Nerín, C.; Domingues, F.C. Stilbene Phytoallexins Inclusion Complexes: A Natural-Based Strategy to Control Foodborne Pathogen Campylobacter. Food Control 2015, 54, 66–73.
  11. Gabaston, J.; Richard, T.; Cluzet, S.; Palos Pinto, A.; Dufour, M.C.; Corio-Costet, M.F.; Mérillon, J.M. Pinus pinaster Knot: A Source of Polyphenols against Plasmopara viticola. J. Agric. Food Chem. 2017, 65, 8884–8891.
  12. Celimene, C.C.; Micales, J.A.; Ferge, L.; Young, R.A. Efficacy of Pinosylvins against White-Rot and Brown-Rot Fungi. Holzforschung 1999, 53, 491–497.
  13. Lee, D.G.; Lee, S.J.; Rodriguez, J.P.; Kim, I.H.; Chang, T.; Lee, S. Antifungal Activity of Pinosylvin from Pinus Densiflora on Turfgrass Fungal Diseases. J. Appl. Biol. Chem. 2017, 60, 213–218.
  14. Bouyahya, A.; Omari, N.E.; El Hachlafi, N.; Jemly, M.E.; Hakkour, M.; Balahbib, A.; El Menyiy, N.; Bakrim, S.; Naceiri Mrabti, H.; Khouchlaa, A. Chemical Compounds of Berry-Derived Polyphenols and Their Effects on Gut Microbiota, Inflammation, and Cancer. Molecules 2022, 27, 3286.
  15. Bouyahya, A.; Guaouguaou, F.-E.; El Omari, N.; El Menyiy, N.; Balahbib, A.; El-Shazly, M.; Bakri, Y. Anti-Inflammatory and Analgesic Properties of Moroccan Medicinal Plants: Phytochemistry, in Vitro and in Vivo Investigations, Mechanism Insights, Clinical Evidences and Perspectives. J. Pharm. Anal. 2021, 12, 35–37.
  16. Park, E.-J.; Ahn, Y.-H.; Pyee, J.-H.; Park, H.J.; Chung, H.-J.; Min, H.-Y.; Hong, J.-Y.; Kang, Y.-J.; Bae, I.-K.; Lee, S.K. Suppressive Effects of Pinosylvin, a Natural Stilbenoid, on Cyclooxygenase-2 and Inducible Nitric Oxide Synthase and the Growth Inhibition of Cancer Cells. Cancer Res. 2005, 65, 176.
  17. Eräsalo, H.; Hämäläinen, M.; Leppänen, T.; Mäki-Opas, I.; Laavola, M.; Haavikko, R.; Yli-Kauhaluoma, J.; Moilanen, E. Natural Stilbenoids Have Anti-Inflammatory Properties in Vivo and down-Regulate the Production of Inflammatory Mediators NO, IL6, and MCP1 Possibly in a PI3K/Akt-Dependent Manner. J. Nat. Prod. 2018, 81, 1131–1142.
  18. Park, E.-J.; Min, H.-Y.; Chung, H.-J.; Ahn, Y.-H.; Pyee, J.-H.; Lee, S.K. Pinosylvin Suppresses LPS-Stimulated Inducible Nitric Oxide Synthase Expression via the MyD88-Independent, but TRIF-Dependent Downregulation of IRF-3 Signaling Pathway in Mouse Macrophage Cells. Cell. Physiol. Biochem. 2011, 27, 353–362.
  19. Park, E.-J.; Min, H.-Y.; Ahn, Y.-H.; Bae, C.-M.; Pyee, J.-H.; Lee, S.K. Synthesis and Inhibitory Effects of Pinosylvin Derivatives on Prostaglandin E2 Production in Lipopolysaccharide-Induced Mouse Macrophage Cells. Bioorg. Med. Chem. Lett. 2004, 14, 5895–5898.
  20. Koskela, A.; Reinisalo, M.; Hyttinen, J.M.; Kaarniranta, K.; Karjalainen, R.O. Pinosylvin-Mediated Protection against Oxidative Stress in Human Retinal Pigment Epithelial Cells. Mol. Vis. 2014, 20, 760.
  21. Bauerova, K.; Acquaviva, A.; Ponist, S.; Gardi, C.; Vecchio, D.; Drafi, F.; Arezzini, B.; Bezakova, L.; Kuncirova, V.; Mihalova, D.; et al. Markers of Inflammation and Oxidative Stress Studied in Adjuvant-Induced Arthritis in the Rat on Systemic and Local Level Affected by Pinosylvin and Methotrexate and Their Combination. Autoimmunity 2015, 48, 46–56.
  22. Moilanen, L.J.; Hämäläinen, M.; Lehtimäki, L.; Nieminen, R.M.; Muraki, K.; Moilanen, E. Pinosylvin Inhibits TRPA 1-Induced Calcium Influx In Vitro and TRPA 1-Mediated Acute Paw Inflammation In Vivo. Basic Clin. Pharmacol. Toxicol. 2016, 118, 238–242.
  23. Drafi, F.; Bauerova, K.; Kuncirova, V.; Ponist, S.; Mihalova, D.; Fedorova, T.; Harmatha, J.; Nosal, R. Pharmacological Influence on Processes of Adjuvant Arthritis: Effect of the Combination of an Antioxidant Active Substance with Methotrexate. Interdiscip. Toxicol. 2012, 5, 84–91.
  24. Rodríguez-Bonilla, P.; Gandía-Herrero, F.; Matencio, A.; García-Carmona, F.; López-Nicolás, J.M. Comparative Study of the Antioxidant Capacity of Four Stilbenes Using ORAC, ABTS+, and FRAP Techniques. Food Anal. Methods 2017, 10, 2994–3000.
  25. Wang, C.; Sang, M.; Gong, S.; Yang, J.; Cheng, C.Y.; Sun, F. Two Resveratrol Analogs, Pinosylvin and 4,4′-Dihydroxystilbene, Improve Oligoasthenospermia in a Mouse Model by Attenuating Oxidative Stress via the Nrf2-ARE Pathway. Bioorg. Chem. 2020, 104, 104295.
  26. Jančinová, V.; Perečko, T.; Nosáľ, R.; Harmatha, J.; Šmidrkal, J.; Drábiková, K. The Natural Stilbenoid Pinosylvin and Activated Neutrophils: Effects on Oxidative Burst, Protein Kinase C, Apoptosis and Efficiency in Adjuvant Arthritis. Acta Pharmacol. Sin. 2012, 33, 1285–1292.
  27. Tamminen, T.; Koskela, A.; Toropainen, E.; Gurubaran, I.S.; Winiarczyk, M.; Liukkonen, M.; Paterno, J.J.; Lackman, P.; Sadeghi, A.; Viiri, J.; et al. Pinosylvin Extract Retinari™ Sustains Electrophysiological Function, Prevents Thinning of Retina, and Enhances Cellular Response to Oxidative Stress in NFE2L2 Knockout Mice. Oxid. Med. Cell. Longev. 2021, 2021, 8028427.
  28. Chen, M.-K.; Liu, Y.-T.; Lin, J.-T.; Lin, C.-C.; Chuang, Y.-C.; Lo, Y.-S.; Hsi, Y.-T.; Hsieh, M.-J. Pinosylvin Reduced Migration and Invasion of Oral Cancer Carcinoma by Regulating Matrix Metalloproteinase-2 Expression and Extracellular Signal-Regulated Kinase Pathway. Biomed. Pharmacother. 2019, 117, 109160.
  29. Park, E.-J.; Chung, H.-J.; Park, H.J.; Kim, G.D.; Ahn, Y.-H.; Lee, S.K. Suppression of Src/ERK and GSK-3/β-Catenin Signaling by Pinosylvin Inhibits the Growth of Human Colorectal Cancer Cells. Food Chem. Toxicol. 2013, 55, 424–433.
  30. Park, J.; Pyee, J.; Park, H. Pinosylvin at a High Concentration Induces AMPK-Mediated Autophagy for Preventing Necrosis in Bovine Aortic Endothelial Cells. Can. J. Physiol. Pharmacol. 2014, 92, 993–999.
  31. Park, E.-J.; Park, H.J.; Chung, H.-J.; Shin, Y.; Min, H.-Y.; Hong, J.-Y.; Kang, Y.-J.; Ahn, Y.-H.; Pyee, J.-H.; Kook Lee, S. Antimetastatic Activity of Pinosylvin, a Natural Stilbenoid, Is Associated with the Suppression of Matrix Metalloproteinases. J. Nutr. Biochem. 2012, 23, 946–952.
  32. Ketola, K.; Viitala, M.; Kohonen, P.; Fey, V.; Culig, Z.; Kallioniemi, O.; Iljin, K. High-Throughput Cell-Based Compound Screen Identifies Pinosylvin Methyl Ether and Tanshinone IIA as Inhibitors of Castration-Resistant Prostate Cancer. J. Mol. Biochem. 2016, 5, 12–22.
  33. Lim, S.J.; Kim, M.; Randy, A.; Nho, C.W. Inhibitory Effect of the Branches of Hovenia dulcis Thunb. and Its Constituent Pinosylvin on the Activities of IgE-Mediated Mast Cells and Passive Cutaneous Anaphylaxis in Mice. Food Funct. 2015, 6, 1361–1370.
  34. Chuang, Y.-C.; Hsieh, M.-C.; Lin, C.-C.; Lo, Y.-S.; Ho, H.-Y.; Hsieh, M.-J.; Lin, J.-T. Pinosylvin Inhibits Migration and Invasion of Nasopharyngeal Carcinoma Cancer Cells via Regulation of Epithelial-mesenchymal Transition and Inhibition of MMP-2. Oncol. Rep. 2021, 46, 143.
  35. Kwon, O.; Seo, Y.; Park, H. Pinosylvin Exacerbates LPS-Induced Apoptosis via ALOX 15 Upregulation in Leukocytes. BMB Rep. 2018, 51, 302.
  36. Skinnider, L.; Stoessl, A. The Effect of the Phytoalexins, Lubimin, (−)-Maackiain, Pinosylvin, and the Related Compounds Dehydroloroglossol and Hordatine M on Human Lymphoblastoid Cell Lines. Experientia 1986, 42, 568–570.
  37. Jina, S.; Jinsun, P.; Eunsil, J.; A-Young, S.; Jaeho, P.; Heonyong, P. Apoptotic Effect of Pinosylvin at a High Concentration Regulated by C-Jun N-Terminal Kinase in Bovine Aortic Endothelial Cells. J. Life Sci. 2015, 25, 416–424.
  38. Song, J.; Seo, Y.; Park, H. Pinosylvin Enhances Leukemia Cell Death via Down-Regulation of AMPKα Expression: Anti-Cancer Activity of Pinosylvin. Phytother. Res. 2018, 32, 2097–2104.
  39. Xu, H.; Deng, R.; Li, E.T.S.; Shen, J.; Wang, M. Pinosylvin Provides Neuroprotection against Cerebral Ischemia and Reperfusion Injury through Enhancing PINK1/Parkin Mediated Mitophagy and Nrf2 Pathway. J. Funct. Foods 2020, 71, 104019.
More
© Text is available under the terms and conditions of the Creative Commons Attribution (CC BY) license; additional terms may apply. By using this site, you agree to the Terms and Conditions and Privacy Policy.
Upload a video for this entry
Information
Subjects: Integrative & Complementary Medicine
Contributors MDPI registered users' name will be linked to their SciProfiles pages. To register with us, please refer to https://encyclopedia.pub/register :
Sara Aboulaghras
,
Monica Gallo
,
BAKRIM SAAD
,
Hamza Mechchate
,
Taoufiq Benali
,
Dr. Nargis Sahib
,
Imane Jaouadi
,
Nasreddine El Omari
,
Sneh Punia
,
Jose Manuel Lorenzo
,
Gokhan Zengin
,
Domenico Montesano
,
Abdelhakim BOUYAHYA
View Times: 555
Revisions: 2 times (View History)
Update Date: 15 Aug 2022
Table of Contents
    1000/1000
    Hot Most Recent
    Video Production Service
    Feedback