Inês Ribeiro

Publication Activity (10 Years)

Years Active: 2022-2023
Publications (10 Years): 6

Top Topics

High Throughput

Major Depressive Disorder

Top Venues

This page only lists publications with an associated author ORCID identifier.

Publications

Joana Macedo, António Mateus-Pinheiro, Cátia Alves, Fernando Veloso, Eduardo D Gomes, Inês Ribeiro, Joana S Correia, Tiago Silveira-Rosa, Nuno Dinis Alves, Ana J Rodrigues, João M Bessa, Nuno Sousa, João F Oliveira, Patrícia Patrício, Luisa Pinto
StressMatic: A Novel Automated System to Induce Depressive- and Anxiety-like Phenotype in Rats. Cells 12 (3) (2023)
Joana Macedo, António Mateus-Pinheiro, Cátia Alves, Fernando Veloso, Eduardo D Gomes, Inês Ribeiro, Joana S Correia, Tiago Silveira-Rosa, Nuno Dinis Alves, Ana J Rodrigues, João M Bessa, Nuno Sousa, João F Oliveira, Patrícia Patrício, Luisa Pinto
StressMatic: A Novel Automated System to Induce Depressive- and Anxiety-like Phenotype in Rats. Cells 12 (3) (2023)
Joana Macedo, António Mateus-Pinheiro, Cátia Alves, Fernando Veloso, Eduardo D Gomes, Inês Ribeiro, Joana S Correia, Tiago Silveira-Rosa, Nuno Dinis Alves, Ana J Rodrigues, João M Bessa, Nuno Sousa, João F Oliveira, Patrícia Patrício, Luisa Pinto
StressMatic: A Novel Automated System to Induce Depressive- and Anxiety-like Phenotype in Rats. Cells 12 (3) (2023)
Joana Macedo, António Mateus-Pinheiro, Cátia Alves, Fernando Veloso, Eduardo D Gomes, Inês Ribeiro, Joana S Correia, Tiago Silveira-Rosa, Nuno Dinis Alves, Ana J Rodrigues, João M Bessa, Nuno Sousa, João F Oliveira, Patrícia Patrício, Luisa Pinto
StressMatic: A Novel Automated System to Induce Depressive- and Anxiety-like Phenotype in Rats. Cells 12 (3) (2023)
Andreia Vaz, Inês Ribeiro, Luisa Pinto
Frontiers in Neurogenesis. Cells 11 (22) (2022)
Joana Bravo, Inês Ribeiro, Ana Filipa Terceiro, Elva Bonifácio Andrade, Camila Cabral Portugal, Igor M Lopes, Maria M Azevedo, Mafalda Sousa, Cátia D F Lopes, Andrea C Lobo, Teresa Canedo, João Bettencourt Relvas, Teresa Summavielle
Neuron-Microglia Contact-Dependent Mechanisms Attenuate Methamphetamine-Induced Microglia Reactivity and Enhance Neuronal Plasticity. Cells 11 (3) (2022)