Topiramate-chitosan nanoparticles prevent morphine reinstatement with no memory impairment: Dopaminergic and glutamatergic molecular aspects in rats

Besides their clinical application, chronic misuse of opioids has often been associated to drug addiction due to their addictive properties, underlying neuroadaptations of AMPA glutamate-receptor-dependent synaptic plasticity. Topiramate (TPM), an AMPAR antagonist, has been used to treat psychostimu...

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Veröffentlicht in:Neurochemistry international 2021-11, Vol.150, p.105157-105157, Article 105157
Hauptverfasser: Milanesi, Laura Hautrive, Rossato, Domenika Rubert, Oliveira da Rosa, Jéssica Leandra, D'avila, Lívia Ferraz, Metz, Vinicia Garzella, Wolf, Jéssica Fernanda, Reis, Vanessa B., de Andrade, Diego F., Jank, Louise, Beck, Ruy C.R., da Silva, Cristiane de B., Burger, Marilise E.
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container_title Neurochemistry international
container_volume 150
creator Milanesi, Laura Hautrive
Rossato, Domenika Rubert
Oliveira da Rosa, Jéssica Leandra
D'avila, Lívia Ferraz
Metz, Vinicia Garzella
Wolf, Jéssica Fernanda
Reis, Vanessa B.
de Andrade, Diego F.
Jank, Louise
Beck, Ruy C.R.
da Silva, Cristiane de B.
Burger, Marilise E.
description Besides their clinical application, chronic misuse of opioids has often been associated to drug addiction due to their addictive properties, underlying neuroadaptations of AMPA glutamate-receptor-dependent synaptic plasticity. Topiramate (TPM), an AMPAR antagonist, has been used to treat psychostimulants addiction, despite its harmful effects on memory. This study aimed to evaluate the effects of a novel topiramate nanosystem on molecular changes related to morphine reinstatement. Rats were previously exposed to morphine in conditioned place preference (CPP) paradigm and treated with topiramate-chitosan nanoparticles (TPM–CS–NP) or non-encapsulated topiramate in solution (S-TPM) during CPP extinction; following memory performance evaluation, they were re-exposed to morphine reinstatement. While morphine-CPP extinction was comparable among all experimental groups, TPM–CS–NP treatment prevented morphine reinstatement, preserving memory performance, which was impaired by both morphine-conditioning and S-TPM treatment. In the NAc, morphine increased D1R, D2R, D3R, DAT, GluA1 and MOR immunoreactivity. It also increased D1R, DAT, GluA1 and MOR in the dorsal hippocampus. TPM–CS–NP treatment decreased D1R, D3R and GluA1 and increased DAT in the NAc, decreasing GluA1 and increasing D2 and DAT in the dorsal hippocampus. Taken together, we may infer that TPM–CS–NP treatment was able to prevent the morphine reinstatement without memory impairment. Therefore, TPM–CS–NP may be considered an innovative therapeutic tool due to its property to prevent opioid reinstatement because it acts modifying both dopaminergic and glutamatergic neurotransmission, which are commonly related to morphine addiction. •Topiramate chitosan nanoparticles (TPM–CS–NP) prevent morphine reinstatement.•Nanoencapsulation decreases memory impairment related to topiramate treatment.•Morphine exposure upregulates D1-and D2-R in NAC and GluA1 in NAc and hippocampus.•TPM–CS–NP modulates both dopaminergic and glutamatergic neurotransmission.
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Topiramate (TPM), an AMPAR antagonist, has been used to treat psychostimulants addiction, despite its harmful effects on memory. This study aimed to evaluate the effects of a novel topiramate nanosystem on molecular changes related to morphine reinstatement. Rats were previously exposed to morphine in conditioned place preference (CPP) paradigm and treated with topiramate-chitosan nanoparticles (TPM–CS–NP) or non-encapsulated topiramate in solution (S-TPM) during CPP extinction; following memory performance evaluation, they were re-exposed to morphine reinstatement. While morphine-CPP extinction was comparable among all experimental groups, TPM–CS–NP treatment prevented morphine reinstatement, preserving memory performance, which was impaired by both morphine-conditioning and S-TPM treatment. In the NAc, morphine increased D1R, D2R, D3R, DAT, GluA1 and MOR immunoreactivity. It also increased D1R, DAT, GluA1 and MOR in the dorsal hippocampus. 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TPM–CS–NP treatment decreased D1R, D3R and GluA1 and increased DAT in the NAc, decreasing GluA1 and increasing D2 and DAT in the dorsal hippocampus. Taken together, we may infer that TPM–CS–NP treatment was able to prevent the morphine reinstatement without memory impairment. 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Topiramate (TPM), an AMPAR antagonist, has been used to treat psychostimulants addiction, despite its harmful effects on memory. This study aimed to evaluate the effects of a novel topiramate nanosystem on molecular changes related to morphine reinstatement. Rats were previously exposed to morphine in conditioned place preference (CPP) paradigm and treated with topiramate-chitosan nanoparticles (TPM–CS–NP) or non-encapsulated topiramate in solution (S-TPM) during CPP extinction; following memory performance evaluation, they were re-exposed to morphine reinstatement. While morphine-CPP extinction was comparable among all experimental groups, TPM–CS–NP treatment prevented morphine reinstatement, preserving memory performance, which was impaired by both morphine-conditioning and S-TPM treatment. In the NAc, morphine increased D1R, D2R, D3R, DAT, GluA1 and MOR immunoreactivity. It also increased D1R, DAT, GluA1 and MOR in the dorsal hippocampus. TPM–CS–NP treatment decreased D1R, D3R and GluA1 and increased DAT in the NAc, decreasing GluA1 and increasing D2 and DAT in the dorsal hippocampus. Taken together, we may infer that TPM–CS–NP treatment was able to prevent the morphine reinstatement without memory impairment. 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subjects Analgesics, Opioid - pharmacology
Animals
Chitosan - administration & dosage
Chitosan nanoparticles
Conditioned place preference (CPP)
Conditioning, Psychological - drug effects
Conditioning, Psychological - physiology
Dopamine - metabolism
Dopamine receptor
Drug Therapy, Combination
Extinction, Psychological - drug effects
Extinction, Psychological - physiology
GluA1
Glutamic Acid - metabolism
Male
Memory - drug effects
Memory - physiology
Morphine - pharmacology
Morphine Dependence - metabolism
Morphine Dependence - prevention & control
Nanoparticles - administration & dosage
Opioid addiction
Rats
Rats, Wistar
Receptors, AMPA - metabolism
Receptors, Dopamine - metabolism
Topiramate - administration & dosage
title Topiramate-chitosan nanoparticles prevent morphine reinstatement with no memory impairment: Dopaminergic and glutamatergic molecular aspects in rats
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