Team Alessi

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PD Functional Genomics | 2020

Mapping the LRRK2 Signaling Pathway and Its Interplay with Other Parkinson’s Disease Components

Study Rationale: Genetic mutations that lead to the activation of the enzyme LRRK2 are a major cause of inherited Parkinson’s disease. Team Alessi aims to combine the complementary expertise of its four research laboratories to perform fundamental, state-of-the-art experimentation to better comprehend the biology that is controlled by LRRK2. Team Alessi’s goal is to gain a much better understanding of LRRK2-driven Parkinson’s disease, hopefully providing a foundation for the development of future therapies.

Hypothesis: LRRK2 targets and modifies a set of enzymes known as Rab GTPases, triggering new biological events by creating new protein: protein interactions. Team Alessi aims to decipher what controls the activity of LRRK2 and to explore, in precise molecular detail, how this enzyme affects three major cellular structures (cilia, lysosomes, and mitochondria) implicated in Parkinson’s disease.

Study Design: Team Alessi showed that mutant LRRK2 triggers a series of molecular changes that cause new sets of proteins to interact. Team Alessi’s goal is to use a combination of state-of-the-art approaches to understand the consequences of these new interactions on the biology of three important subcellular compartments: primary cilia, lysosomes, and mitochondria.

Impact on Diagnosis/Treatment of Parkinson’s Disease: Team Alessi’s findings will provide novel, fundamental information of relevance to understanding the origin and progression of Parkinson’s that they hope will lead to new ideas to better diagnose, treat, and even prevent this malady in the future.

Leadership
Dario Alessi, PhD
Coordinating Lead PI

Dario Alessi, PhD

University of Dundee
Miratul Muqit, MD, PhD
Co-Investigator

Miratul Muqit, MD, PhD

University of Dundee
Monther Abu-Remaileh, PhD
Co-Investigator

Monther Abu-Remaileh, PhD

Stanford University
Suzanne Pfeffer, PhD
Co-Investigator

Suzanne Pfeffer, PhD

Stanford University
Enrico Bagnoli, PhD
Project Manager

Enrico Bagnoli, PhD

University of Dundee

Project Outcomes

The project will provide fundamental information regarding how mutations in LRRK2 cause Parkinson's disease. View Team Outcomes. Learn more about the team. Meet the Investigators.

Team Outputs

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Overall Contributions

Here is an overview of how this team’s article findings have contributed to the PD field as of November 2023. There are two different categorizations of these contributions – one by impact to the PD community and a second by scientific theme.

Impact

Theme

Featured Output

Below is an example of a research output from the team that contributes to the ASAP mission of accelerating discoveries for PD.

Tagless LysoIP method for molecular profiling of lysosomal content in clinical samples

Lysosomes are implicated in a wide spectrum of human diseases including neurodegeneration. Profiling lysosomal content using tag-based lysosomal immunoprecipitation (LysoTagIP) in cell and animal models allowed major discoveries in the field; however studying lysosomal dysfunction in human patients remains challenging. Here, Team Alessi reports the development of the tagless LysoIP method to enable rapid enrichment of lysosomes directly from clinical samples and human cell lines. Isolated lysosomes are intact and suitable for subsequent “omics” analyses (including proteomics, lipidomics, and metabolomics).

Team Accolades

Members of the team have been recognized for their contributions.

  • Open Science Champions: Dario Alessi, Monther Abu-Remaileh, Miratul Muqit, Suzanne Pfeffer, Rotimi Fasimoye, Francesca Tonelli, Toan Phung, Rosamund Shastry, Raja Niujogi, Daniel Saarela
  • Network Spotlights: Alexia Kalogeropulou, Francesca Tonelli, Miratul Muqit
  • Awards

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