Design, Synthesis, and Evaluation of a Novel Conjugate Molecule with Dopaminergic and Neuroprotective Activities for Parkinson's Disease.
Diego PloperAgustín O PerniconeRodrigo H Tomas-GrauVerónica E ManzanoSergio B SocíasMaría Del Milagro TeranValentina Budeguer IsaBernardo Sosa-PadillaFlorencia González-LizárragaCésar L AvilaMaría Laura GuayánSilvina ChavesHernán CruzEsteban Vera PingitoreOscar VarelaRosana ChehínPublished in: ACS chemical neuroscience (2024)
The escalating prevalence of Parkinson's disease (PD) underscores the need for innovative therapeutic interventions since current palliative measures, including the standard l-Dopa formulations, face challenges of tolerance and side effects while failing to address the underlying neurodegenerative processes. Here, we introduce DAD9 , a novel conjugate molecule that aims to combine symptomatic relief with disease-modifying strategies for PD. Crafted through knowledge-guided chemistry, the molecule combines a nonantibiotic doxycycline derivative with dopamine, preserving neuroprotective attributes while maintaining dopaminergic agonism. This compound exhibited no off-target effects on PD-relevant cell functions and sustained antioxidant and anti-inflammatory properties of the tetracycline precursor. Furthermore, it effectively interfered with the formation and seeding of toxic α-synuclein aggregates without producing detrimental oxidative species. In addition, DAD9 was able to activate dopamine receptors, and docking simulations shed light onto the molecular details of this interaction. These findings position DAD9 as a potential neuroprotective dopaminergic agonist, promising advancements in PD therapeutics.
Keyphrases
- ms ms
- anti inflammatory
- simultaneous determination
- cerebral ischemia
- molecular dynamics
- healthcare
- uric acid
- risk factors
- cancer therapy
- oxidative stress
- small molecule
- palliative care
- physical activity
- cell therapy
- drug delivery
- metabolic syndrome
- brain injury
- risk assessment
- mass spectrometry
- climate change
- single molecule
- liquid chromatography
- genetic diversity