Clinical Trials Logo

Clinical Trial Summary

This study evaluates the efficacy of an eight-week online cognitive training program on objective and subjective cognitive functions in Parkinson's disease. Moreover, we intend to map the effect on brain network function, and if cognitive training can prevent the development of PD-MCI/PD-D after one- and two-year follow-up. In this study, two training groups will be compared (N: 70 vs 70). In a part of the participants MRI will be assessed (N: 40 vs. 40). We expect cognitive training to improve cognitive functions, and to improve the efficiency of brain network function. Moreover, we expect that cognitive training can decrease the risk of PD-MCI/PD-D at one- and two-year follow-up.


Clinical Trial Description

BACKGROUND In Parkinson's disease (PD), cognitive dysfunction is frequently reported - approximately 50% of PD patients experience cognitive impairment (Litvan et al., 2011). Of these impairments, executive dysfunction is most frequently reported early in the disease trajectory (Bosboom, Stoffers, & Wolters, 2004; Muslimovic, Post, Speelman, & Schmand, 2005), while impairments in other cognitive domains (i.e. attention, episodic memory, visuospatial functions) are also highly prevalent (Bosboom et al., 2004). The majority of PD patients ultimately develops PD dementia (PD-D; Aarsland, Andersen, Larsen, Lolk, & Kragh-Sorensen, 2003; Hely, Reid, Adena, Halliday, & Morris, 2008). Moreover, about 10% of the PD patients develops PD-D every year (Aarsland & Kurz, 2010). Cognitive dysfunctions in PD have a significant negative influence on the quality of life (Klepac, Trkulja, Relja, & Babic, 2008), while treatment of these dysfunctions is in its infancy. Cognitive training may provide a new intervention for reducing cognitive complaints and delaying the onset of mild cognitive impairment (MCI) or PD-D. This intervention has been widely studied in other diseases (Cicerone et al., 2011; Olazaran et al., 2010). Moreover, studies have provided evidence not only for behavioral influences, but also for brain connectivity and activity effects of cognitive training (Chapman et al., 2015; Castellanos et al., 2010; Subramaniam et al., 2012; Subramaniam et al., 2014; Belleville et al., 2011; Rosen, Sugiura, Kramer, Whitfield-Gabrieli, & Gabrieli, 2011). This suggests a restorative effect of cognitive training on disrupted brain networks. In PD, cognitive dysfunction - mainly executive dysfunction - is associated with disruption of the cortico-striato-thalamo-corticale circuits by depletion of dopamine. Dysfunction of these circuits seems to disrupt several cognitive networks, which leads to cognitive dysfunction (Baggio et al., 2014). Cognitive training could counteract these disruptions by normalising activity and connectivity, and ultimately lead to a reduction of impairment. Since earlier studies in different patient populations have shown that cognitive training has lasting effects (Petrelli et al., 2015), normalising disruptions underlying cognitive impairment could prevent cognitive deterioration and therefore prevent or delay the development of PD-D. Few studies in PD have focused on cognitive training and its neural correlates. A meta-analysis by Leung et al. (2015) showed positive effects of cognitive training on mainly 'frontal' cognitive functions (i.e. working memory, executive functions, processing speed). In addition, earlier research has described a neuroprotective effect of cognitive training on the development of MCI in PD (odds ratio: 3; Petrelli et al., 2015). Until now, however, studies have been relatively small and mainly without a controlled design - consequently, there is a need for large randomized controlled studies (Hindle, Petrelli, Clare, & Kalbe, 2013; Leung et al., 2015). Moreover, neural effects of cognitive training are largely unknown in PD. Furthermore, it is important to study the improvement of patients on daily functioning after cognitive training, rather than solely focusing on cognitive tasks and neural measures. Finally, cognitive training has been performed mainly in hospital settings, while PD patients have mobility problems - a training method suitable to perform from home is therefore needed for this population. OBJECTIVES The study objective is primarily to measure the effect of an online cognitive training in patients with mild cognitive complaints in PD. An online training, specifically altered for PD patients (BrainGymmer) will be compared with an active comparator. In both conditions, participants will train eight weeks, three times a week during 45 minutes. Primary objective: - To measure the effect of an online cognitive training (as compared to the active comparator), eight weeks, three times a week, on executive functions in patients with mild cognitive complaints in PD. Secondary objectives: - To measure the effect of online cognitive training on daily functioning. - To measure the endurance of the training effect after six months, one and two years. - To assess the reduced risk of MCI and PD-D development by cognitive training. - To assess the effect of cognitive training on brain network efficiency and connectivity. - To assess the effect of cognitive training on brain network topology and connectivity, and cognition, relative to those of matched healthy control participants. - To assess the difference in brain network topology and connectivity, and cognition, between Parkinson's disease patients with or without cognitive impairment and healthy control participants. ;


Study Design


Related Conditions & MeSH terms


NCT number NCT02920632
Study type Interventional
Source VU University Medical Center
Contact
Status Active, not recruiting
Phase N/A
Start date September 15, 2017
Completion date September 2021

See also
  Status Clinical Trial Phase
Completed NCT05415774 - Combined Deep Brain Stimulation in Parkinson's Disease N/A
Recruiting NCT04691661 - Safety, Tolerability, Pharmacokinetics and Efficacy Study of Radotinib in Parkinson's Disease Phase 2
Active, not recruiting NCT05754086 - A Multidimensional Study on Articulation Deficits in Parkinsons Disease
Completed NCT04045925 - Feasibility Study of the Taïso Practice in Parkinson's Disease N/A
Recruiting NCT04194762 - PARK-FIT. Treadmill vs Cycling in Parkinson´s Disease. Definition of the Most Effective Model in Gait Reeducation N/A
Completed NCT02705755 - TD-9855 Phase 2 in Neurogenic Orthostatic Hypotension (nOH) Phase 2
Terminated NCT03052712 - Validation and Standardization of a Battery Evaluation of the Socio-emotional Functions in Various Neurological Pathologies N/A
Recruiting NCT05830253 - Free-living Monitoring of Parkinson's Disease Using Smart Objects
Recruiting NCT03272230 - Assessment of Apathy in a Real-life Situation, With a Video and Sensors-based System N/A
Recruiting NCT06139965 - Validity and Reliability of the Turkish Version of the Comprehensive Coordination Scale in Parkinson's Patients
Completed NCT04580849 - Telerehabilitation Using a Dance Intervention in People With Parkinson's Disease N/A
Completed NCT04477161 - Effect of Ketone Esters in Parkinson's Disease N/A
Completed NCT03980418 - Evaluation of a Semiconductor Camera for the DaTSCAN™ Exam N/A
Recruiting NCT04788693 - Effects of Gait Rehabilitation With Motor Imagery in People With Parkinson's Disease N/A
Completed NCT04942392 - Digital Dance for People With Parkinson's Disease During the COVID-19 Pandemic N/A
Terminated NCT03446833 - LFP Beta aDBS Feasibility Study N/A
Completed NCT03497884 - Individualized Precise Localization of rTMS on Primary Motor Area N/A
Completed NCT05538455 - Investigating ProCare4Life Impact on Quality of Life of Elderly Subjects With Neurodegenerative Diseases N/A
Recruiting NCT04997642 - Parkinson's Disease and Movement Disorders Clinical Database
Completed NCT04117737 - A Pilot Study of Virtual Reality and Antigravity Treadmill for Gait Improvement in Parkinson N/A