Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Validation of a Mobile, Sensor-based Neurobehavioral Assessment With Digital Signal Processing and Machine-learning Analytics

View through CrossRef
Background: The Miro Health Mobile Assessment Platform consists of self-administered neurobehavioral and cognitive assessments that measure behaviors typically measured by specialized clinicians. Objective: To evaluate the Miro Health Mobile Assessment Platform’s concurrent validity, test–retest reliability, and mild cognitive impairment (MCI) classification performance. Method: Sixty study participants were evaluated with Miro Health version V.2. Healthy controls (HC), amnestic MCI (aMCI), and nonamnestic MCI (naMCI) ages 64–85 were evaluated with version V.3. Additional participants were recruited at Johns Hopkins Hospital to represent clinic patients, with wider ranges of age and diagnosis. In all, 90 HC, 21 aMCI, 17 naMCI, and 15 other cases were evaluated with V.3. Concurrent validity of the Miro Health variables and legacy neuropsychological test scores was assessed with Spearman correlations. Reliability was quantified with the scores’ intraclass correlations. A machine-learning algorithm combined Miro Health variable scores into a Risk score to differentiate HC from MCI or MCI subtypes. Results: In HC, correlations of Miro Health variables with legacy test scores ranged 0.27–0.68. Test–retest reliabilities ranged 0.25–0.79, with minimal learning effects. The Risk score differentiated individuals with aMCI from HC with an area under the receiver operator curve (AUROC) of 0.97; naMCI from HC with an AUROC of 0.80; combined MCI from HC with an AUROC of 0.89; and aMCI from naMCI with an AUROC of 0.83. Conclusion: The Miro Health Mobile Assessment Platform provides valid and reliable assessment of neurobehavioral and cognitive status, effectively distinguishes between HC and MCI, and differentiates aMCI from naMCI.
Title: Validation of a Mobile, Sensor-based Neurobehavioral Assessment With Digital Signal Processing and Machine-learning Analytics
Description:
Background: The Miro Health Mobile Assessment Platform consists of self-administered neurobehavioral and cognitive assessments that measure behaviors typically measured by specialized clinicians.
Objective: To evaluate the Miro Health Mobile Assessment Platform’s concurrent validity, test–retest reliability, and mild cognitive impairment (MCI) classification performance.
Method: Sixty study participants were evaluated with Miro Health version V.
2.
Healthy controls (HC), amnestic MCI (aMCI), and nonamnestic MCI (naMCI) ages 64–85 were evaluated with version V.
3.
Additional participants were recruited at Johns Hopkins Hospital to represent clinic patients, with wider ranges of age and diagnosis.
In all, 90 HC, 21 aMCI, 17 naMCI, and 15 other cases were evaluated with V.
3.
Concurrent validity of the Miro Health variables and legacy neuropsychological test scores was assessed with Spearman correlations.
Reliability was quantified with the scores’ intraclass correlations.
A machine-learning algorithm combined Miro Health variable scores into a Risk score to differentiate HC from MCI or MCI subtypes.
Results: In HC, correlations of Miro Health variables with legacy test scores ranged 0.
27–0.
68.
Test–retest reliabilities ranged 0.
25–0.
79, with minimal learning effects.
The Risk score differentiated individuals with aMCI from HC with an area under the receiver operator curve (AUROC) of 0.
97; naMCI from HC with an AUROC of 0.
80; combined MCI from HC with an AUROC of 0.
89; and aMCI from naMCI with an AUROC of 0.
83.
Conclusion: The Miro Health Mobile Assessment Platform provides valid and reliable assessment of neurobehavioral and cognitive status, effectively distinguishes between HC and MCI, and differentiates aMCI from naMCI.

Related Results

Analysis of a Mobile Learning Adoption Model for Learning Improvement Based on Students’ Perception
Analysis of a Mobile Learning Adoption Model for Learning Improvement Based on Students’ Perception
Aim/Purpose: This identifies the factors that influence the application of mobile learning in order to improve the student learning process at universities in Indonesia based on th...
Dynamic stochastic modeling for inertial sensors
Dynamic stochastic modeling for inertial sensors
Es ampliamente conocido que los modelos de error para sensores inerciales tienen dos componentes: El primero es un componente determinista que normalmente es calibrado por el fabri...
Access Denied
Access Denied
Introduction As social-distancing mandates in response to COVID-19 restricted in-person data collection methods such as participant observation and interviews, researchers turned t...
Selection of Injectable Drug Product Composition using Machine Learning Models (Preprint)
Selection of Injectable Drug Product Composition using Machine Learning Models (Preprint)
BACKGROUND As of July 2020, a Web of Science search of “machine learning (ML)” nested within the search of “pharmacokinetics or pharmacodynamics” yielded over 100...
Mobile phone usage for m‐learning: comparing heavy and light mobile phone users
Mobile phone usage for m‐learning: comparing heavy and light mobile phone users
PurposeMobile technologies offer the opportunity to embed learning in a natural environment. The objective of the study is to examine how the usage of mobile phones for m‐learning ...
Advanced Data Science and Analytics
Advanced Data Science and Analytics
Abstract: The chapter "Advanced Data Science and Analytics" provides a comprehensive exploration of advanced data science concepts, methodologies, and applications. It begins with ...

Back to Top