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Vandenberghe, Rik

0000-0001-6237-2502

Mayo Clinic

No affiliation available

Citations 5

Trajectories of brain structure and function in young adult carriers of genetic frontotemporal dementia variants
So, Isis , Staffaroni, Adam M. , Coleman, Kristy , Bouzigues, Arabella , Ferry‐Bolder, Eve , Cullen, Eva , Russell, Lucy L. , Foster, Phoebe H. , Farley, Sophie , Thompson, Alexander, Ber, Isabelle Le , Körtvelyessy, Péter , Schroeter, M., Uzelac, Željko , Kruger, Johanna S. W. , Langheinrich, Tobias , Ducharme, Simon , Santana, Isabel J., Tartaglia, Carmela, Mendonca, Alexandre de, Morenoizco, Fermin, Brushaber, Danielle, Considine, Ciaran , Faber, Kelley, Fagan, Anne, Fields, Julie, Foroud, Tatiana, Forsberg, Leah K. , Geschwind, Daniel, Heuer, Hilary W. , Huang, Eric, Kantarci, Kejal, Kolander, Tyler , Lago, Argentina Lario , Lavigne, Shannon B., Mester, Carly , Molden, Joie, Petrucelli, Leonard , Rademakers, Rosa , Ramos, Eilana, Rankin, Katherine P., Rascovsky, Katya, Rhoads, Kristoffer , Weintraub, Sandra, Wong, Bonnie, Boxer, Adam L. , Rosen, Howard J. , Lee, Suzee E. , Lombardi, Jolina , Staffaroni, Adam M , Coleman, Kristy K L , Bouzigues, Arabella , Ferry-Bolder, Eve , Cullen, Eva , Russell, Lucy L , Foster, Phoebe H , Farley, Sophie , Convery, Rhian , Van Swieten, John C , Jiskoot, Lize C , Seelaar, Harro , Galimberti, Daniela , Vandenberghe, Rik , Laforce, Robert , Bruffaerts, Rose , Bertoux, Maxime , Lebouvier, Thibaud , Solje, Eino , Xiong, Chengjie , di Fede, Giuseppe , Le Ber, Isabelle , Migliaccio, Raffaella Lara , Körtvélyessy, Peter , Logroscino, Giancarlo , Otto, Markus , Uzelac, Zeljko , Illán-Gala, Ignacio , Krüger, Johanna , Nacmias, Benedetta , Gerhard, Alexander , Langheinrich, Tobias , Ducharme, Simon , Masellis, Mario , Rowe, James B , Graff, Caroline , Synofzik, Matthis , Borroni, Barbara , Sánchez-Valle, Raquel , Considine, Ciaran M , Forsberg, Leah K , Gendron, Tania F , Heuer, Hilary W , Huang, Eric , Kolander, Tyler , Mester, Carly , Petrucelli, Leonard , Rademakers, Rosa , Vandebergh, Marijne , Boeve, Brad , Boxer, Adam , Rosen, Howard J , Lee, Suzee E , Rohrer, Jonathan D , Finger, Elizabeth C. , Lombardi, Jolina , Swieten, John C. van , Jiskoot, Lize C. , Seelaar, Harro , Galimberti, Daniela , Vandenberghe, Rik , Laforce, Robert , Lebouvier, Thibaud , Xiong, Chengjie , Thompson, Alexander G. , Logroscino, Giancarlo , Otto, Markus , Illán‐Gala, Ignacio , Nacmias, Benedetta , Tartaglia, Carmela M., de Mendonça, Alexandre , Rowe, James B. , Graff, Caroline , Moreno, Fermín , Synofzik, Matthis , Borroni, Barbara , Sánchez‐Valle, Raquel , Brushaber, Danielle , Fagan, Anne M. , Gendron, Tania F. , Geschwind, Daniel, Kantarci, Kejal , Ramos, Eliana Marisa , Rankin, Katherine P. , Vandebergh, Marijne , Weıntraub, Sandra , Boeve, Bradley F. , Rohrer, Jonathan D.

No container title available | June 11, 2026 | Volume: No volume available | Issue: No issue available | Pages: No page available

10.64898/2026.06.08.26355165 Get It

ABSTRACT Background and Objectives Converging evidence hints at neurodevelopmental effects in genetic frontotemporal degeneration (FTD). In cross-sectional studies, for some genes, young adult FTD variant carriers show differences in brain volumes and cognition compared to familial non-carriers. However, longitudinal trajectories may more sensitively capture FTD-related neurodevelopmental vs. neurodegenerative changes than cross-sectional approaches. This study examined longitudinal trajectories of brain volumes, executive function, and plasma biomarkers in young adult carriers compared to familial non-carriers, as measures of neurodevelopmental and neurodegenerative outcomes of FTD-causing variants. Methods This longitudinal cohort study comprised participants, aged 18-30 years, from the FTD Prevention Initiative across Europe, Canada, and the USA. Genetic groups included C9orf72 (47%), MAPT (30%), and GRN (23%). Linear mixed-effects models were computed to assess longitudinal outcomes across age between groups, controlling for sex, scanner (for brain volumes), and education (for executive function); random effects accounted for between-subject variability nested within family membership. Results Variant carriers ( n =147) and familial non-carriers ( n =113) did not differ in age (mean±SD, 25.9±3.2 years), sex (53% female), or number of visits (2.1±1.7). Young adult C9orf72 repeat expansion carriers exhibited smaller thalamic volumes than non-carriers at the reference age of 26 years ( b =-982.8mm 3 , SE=317.0, p= 0.0046, f 2 =0.32), with relatively stable trajectories across ages 18-30 (i.e., no change over time). Trajectories of rostral anterior cingulate volumes differed in C9orf72 carriers and non-carriers across age, where carriers showed relatively stable trajectories and non-carriers showed age-appropriate declines ( b =64.4mm 3 , SE=29.9, p= 0.035, f 2 =0.07). For MAPT and GRN , there were little to no differences in total brain, cortical, or subcortical volumes between groups and over time. No longitudinal differences were observed between carriers and non-carriers in executive function, or plasma NfL or GFAP for any genetic group. Discussion C9orf72 repeat expansions were linked to smaller average thalamic volumes and stable trajectories between ages 18 to 30, supporting potential neurodevelopmental origins. The modest evidence supporting an absence of difference in neurodegenerative biomarkers and executive function suggests minimal early neurodegeneration and functional preservation in young adulthood.
Recommendations to distinguish behavioural variant frontotemporal dementia from psychiatric disorders
Ducharme, Simon , Dols, Annemiek , Laforce, Robert , Devenney, Emma , Kumfor, Fiona , Stock, Jan Van den , Dallaire‐Théroux, Caroline , Seelaar, Harro , Gossink, Flora , Vijverberg, Everard G.B. , Huey, Edward D. , Vandenbulcke, Mathieu , Trieu, Calvin , Onyike, Chiadi U. , Souza, Leonardo Cruz de , Santillo, Alexander , Waldö, Maria Landqvist , Landín-Romero, Ramón , Piguet, Olivier , Kelso, Wendy , Eratne, Dhamidhu , Ikeda, Manabu , Perry, David C. , Pressman, Peter , Vandenberghe, Rik , Mendez, Mario F. , Azuar, Carole, Lévy, Richard, Ber, Isabelle Le , Lerner, Alan J. , Ellajosyula, Ratnavalli , Galimberti, Daniela , Hornberger, Michael , Rosen, Howard J. , Hodges, John R. , Diehl‐Schmid, Janine , Pijnenburg, Yolande A.L. , Galimberti, Daniela , Pijnenburg, Yolande A L , Seelaar, Harro , Vandenberghe, Rik , Laforce, Robert , Masellis, Mario , Caramelli, Paulo , Velakoulis, Dennis , Boeve, Bradley F. , Báez, Sandra , Pasquier, Florence , Scarpini, Elio , Swieten, John C. van

Brain | January 16, 2020 | Volume: 143 | Issue: 6 | Pages: 1632-1650

10.1093/brain/awaa018 Get It

Abstract The behavioural variant of frontotemporal dementia (bvFTD) is a frequent cause of early-onset dementia. The diagnosis of bvFTD remains challenging because of the limited accuracy of neuroimaging in the early disease stages and the absence of molecular biomarkers, and therefore relies predominantly on clinical assessment. BvFTD shows significant symptomatic overlap with non-degenerative primary psychiatric disorders including major depressive disorder, bipolar disorder, schizophrenia, obsessive-compulsive disorder, autism spectrum disorders and even personality disorders. To date, ∼50% of patients with bvFTD receive a prior psychiatric diagnosis, and average diagnostic delay is up to 5–6 years from symptom onset. It is also not uncommon for patients with primary psychiatric disorders to be wrongly diagnosed with bvFTD. The Neuropsychiatric International Consortium for Frontotemporal Dementia was recently established to determine the current best clinical practice and set up an international collaboration to share a common dataset for future research. The goal of the present paper was to review the existing literature on the diagnosis of bvFTD and its differential diagnosis with primary psychiatric disorders to provide consensus recommendations on the clinical assessment. A systematic literature search with a narrative review was performed to determine all bvFTD-related diagnostic evidence for the following topics: bvFTD history taking, psychiatric assessment, clinical scales, physical and neurological examination, bedside cognitive tests, neuropsychological assessment, social cognition, structural neuroimaging, functional neuroimaging, CSF and genetic testing. For each topic, responsible team members proposed a set of minimal requirements, optimal clinical recommendations, and tools requiring further research or those that should be developed. Recommendations were listed if they reached a ≥ 85% expert consensus based on an online survey among all consortium participants. New recommendations include performing at least one formal social cognition test in the standard neuropsychological battery for bvFTD. We emphasize the importance of 3D-T1 brain MRI with a standardized review protocol including validated visual atrophy rating scales, and to consider volumetric analyses if available. We clarify the role of 18F-fluorodeoxyglucose PET for the exclusion of bvFTD when normal, whereas non-specific regional metabolism abnormalities should not be over-interpreted in the case of a psychiatric differential diagnosis. We highlight the potential role of serum or CSF neurofilament light chain to differentiate bvFTD from primary psychiatric disorders. Finally, based on the increasing literature and clinical experience, the consortium determined that screening for C9orf72 mutation should be performed in all possible/probable bvFTD cases or suspected cases with strong psychiatric features.
Consensus classification of posterior cortical atrophy
Crutch, Sebastian J. , Schott, Jonathan M. , Rabinovici, Gil D. , Murray, Melissa E. , Flier, Wiesje M. van der , Vandenberghe, Rik , Ahmed, Samrah , Bak, Thomas H. , Boeve, Bradley F., Butler, Christopher , Cappa, Stefano F. , Ceccaldi, Mathieu, Souza, Leonardo Cruz de , Dubois, Bruno, Félician, Olivier , Graff‐Radford, Jonathan , Graff‐Radford, Neill R. , Hof, Patrick R., Krolak‐Salmon, Pierre , Lehmann, Manja , Magnin, Éloi , Mendez, Mario F. , Nestor, Peter J. , Onyike, Chiadi U. , Pelak, Victoria S. , Pijnenburg, Yolande A.L. , Primativo, Silvia , Rossor, Martin N. , Ryan, Natalie S. , Scheltens, Philip , González, Aida Suárez, Tang‐Wai, David F. , Yong, Keir , Carrillo, María C. , Fox, Nick C. , Murray, Melissa, Snowden, Julie S. , Dickerson, Bradford Clark , Boeve, Bradley F. , Galasko, Douglas , Hof, Patrick R. , Shakespeare, Timothy J. , Gonzalez, Aida Suarez , Murray, Melissa E , van der Flier, Wiesje M , Scheltens, Philip , Fox, Nick C , Yong, Keir X X , Rabinovici, Gil D , Schott, Jonathan M , Pijnenburg, Yolande A L , Vandenberghe, Rik

Alzheimer's & Dementia | March 2, 2017 | Volume: 13 | Issue: 8 | Pages: 870-884

10.1016/j.jalz.2017.01.014 Get It

Abstract Introduction A classification framework for posterior cortical atrophy (PCA) is proposed to improve the uniformity of definition of the syndrome in a variety of research settings. Methods Consensus statements about PCA were developed through a detailed literature review, the formation of an international multidisciplinary working party which convened on four occasions, and a Web‐based quantitative survey regarding symptom frequency and the conceptualization of PCA. Results A three‐level classification framework for PCA is described comprising both syndrome‐ and disease‐level descriptions. Classification level 1 (PCA) defines the core clinical, cognitive, and neuroimaging features and exclusion criteria of the clinico‐radiological syndrome. Classification level 2 (PCA‐pure, PCA‐plus) establishes whether, in addition to the core PCA syndrome, the core features of any other neurodegenerative syndromes are present. Classification level 3 (PCA attributable to AD [PCA‐AD], Lewy body disease [PCA‐LBD], corticobasal degeneration [PCA‐CBD], prion disease [PCA‐prion]) provides a more formal determination of the underlying cause of the PCA syndrome, based on available pathophysiological biomarker evidence. The issue of additional syndrome‐level descriptors is discussed in relation to the challenges of defining stages of syndrome severity and characterizing phenotypic heterogeneity within the PCA spectrum. Discussion There was strong agreement regarding the definition of the core clinico‐radiological syndrome, meaning that the current consensus statement should be regarded as a refinement, development, and extension of previous single‐center PCA criteria rather than any wholesale alteration or redescription of the syndrome. The framework and terminology may facilitate the interpretation of research data across studies, be applicable across a broad range of research scenarios (e.g., behavioral interventions, pharmacological trials), and provide a foundation for future collaborative work.