nctId: NCT06372587 id: 5502 briefTitle: Next-Generation alzheImer'S Therapeutics acronym: ENERGISE overallStatus: RECRUITING date: 2023-12-19 date: 2024-12-30 date: 2027-02-28 date: 2024-04-18 date: 2024-04-18 name: Fondazione Policlinico Universitario Agostino Gemelli IRCCS class: OTHER briefSummary: Is this the right time to use next-generation approaches in Alzheimer's disease (AD)? In recent years, several large clinical trials testing treatments for AD have failed, putting the entire field on a reset. AD drug trials have almost exclusively sought to use antibodies targeted toward misfolded amyloid and tau proteins. Of note, although these approaches have failed, they were designed to cover both familial and sporadic forms of AD. On the other hand, the failure in developing new effective drugs is attributed to, but not limited to, the highly heterogeneous nature of AD with multiple underlying hypotheses and multifactorial pathology. The idea underlying this project is based on the assumption that learning and memory disorders can arise when the connections between neurons do not change appropriately in response to experience. Thus, by intervening on the core mechanisms of the cellular correlate of learning and memory, i.e., synaptic plasticity, the investigators expect to preserve some of the essential brain functions in AD. By overcoming the limits of traditional AD therapeutic approaches, the investigators will use genetically encoded engineered proteins (GEEPs), which the investigators developed and tested in vitro and in murine models, to control their activity in living human neurons boosting synaptic plasticity. Indeed, outstanding and relevant progress in understanding synaptic physiology empowers the possibility to prevent or limit brain disease like never before. The investigators designed GEEPs to address some of the leading causes of synaptic plasticity failures documented in AD. Thus, GEEPs will be tested in human induced pluripotent stem cells (hiPSCs)-derived living neurons obtained from reprogrammed peripheral tissues of participants with Alzheimer's diseases. hiPSCs will be obtained from fibroblast-derived from a skin biopsy of participants with AD and controls performed in local anesthesia using a 4 mm punch. The findings will provide the first preclinical study on the effect of genetically engineered proteins to control essential pathways implicated in synaptic plasticity on AD-related cognitive decline. conditions: Alzheimer Disease studyType: INTERVENTIONAL phases: NA allocation: NON_RANDOMIZED interventionModel: PARALLEL primaryPurpose: BASIC_SCIENCE masking: NONE count: 14 type: ESTIMATED name: genetically encoded engineered proteins measure: To use genetically encoded engineered proteins to obtain an inducible control of their activity in living human neurons preventing dendritic spines loss measure: To leverage genetically encoded engineered proteins to prevent alterations in the morphology of dendritic spines in living human neurons measure: To use genetically encoded engineered proteins to obtain an inducible control of their activity in living human neurons promoting functional synaptic plasticity measure: To use genetically encoded engineered proteins to obtain evaluate neuronal excitability in living human neurons sex: ALL minimumAge: 18 Years maximumAge: 80 Years stdAges: ADULT stdAges: OLDER_ADULT facility: Fondazione Policlinico Universitario A. Gemelli IRCCS status: RECRUITING city: Roma zip: 00168 country: Italy name: CRISTIAN RIPOLI role: CONTACT phone: +390630154966 email: cristian.ripoli@policlinicogemelli.it name: CRISTIAN RIPOLI role: PRINCIPAL_INVESTIGATOR lat: 41.89193 lon: 12.51133 hasResults: False