PDLens: smartphone knows drug effectiveness among Parkinson's via daily-life activity fusion
Hanbin Zhang, Gabriel Guo, Chen Song, Chenhan Xu, Kevin Yiu-Wah Cheung, Jasleen Alexis, Huining Li, Dongmei Li, Kun Wang, Wenyao Xu
Abstract
Drug effectiveness management is a complicated and challenging task in chronic diseases, like Parkinson's Disease (PD). Drug effectiveness control is not only linked to personal out-of-pocket cost but also affecting the quality of life among patients with chronic symptoms. In the current practice, although that health and medical professionals still play a key role in the personalized treatment plan, the critical decision on drug selection falls upon the individual report when patients call in or visit the clinics. Unfortunately, most of the patients with chronic diseases either fail to report their day-to-day symptoms or have a limited access to medical resources due to economic constraints. In this paper, we present PDLens, a first smartphone-based system to detect drug effectiveness among Parkinson's in daily life. Specifically, PDLens can extract digital behavioral markers related to PD drug responses from everyday activities, including phone calls, standing, and walking. PDLens models the PD symptom severity on drug treatment and detects the change of severity scores before and after drug intake. A ranking-based multi-view deep neural network is developed to decide the drug effectiveness upon the symptom severity changes. To validate the performance of PDLens, we conduct a pilot study with 81 PD patients and monitor their smartphone activities and severity changes over 33693 drug intake events across six (6) months. Compared with the standard clinical drug effectiveness test developed by Motor Disorder Society, results reveal that PDLens is a promising tool to facilitate drug effectiveness detection among PD patients in their daily lives.
Ask about this paper
Ask your agent about it.
Lune has read the top-tier papers around this one, so every answer names the papers it rests on.
Cited by top-tier papers5
- Cosmo: contrastive fusion learning with small data for multimodal human activity recognitionXiaomin Ouyang, Xian Shuai, Jiayu Zhou, Ivy Wang Shi et al.MobiCom 2022 · 94 citations
- ADMarker: A Multi-Modal Federated Learning System for Monitoring Digital Biomarkers of Alzheimer's DiseaseXiaomin Ouyang, Xian Shuai, Yang Li, Li Pan et al.MobiCom 2024 · 41 citations
- MSLife: Digital Behavioral Phenotyping of Multiple Sclerosis Symptoms in the Wild Using Wearables and Graph-Based Statistical AnalysisGabriel Guo, Hanbin Zhang, Liuyi Yao, Huining Li et al.UbiComp 2022 · 16 citations
- DAPPER: Label-Free Performance Estimation after Personalization for Heterogeneous Mobile SensingTaesik Gong, Yewon Kim, Adiba Orzikulova, Yunxin Liu et al.UbiComp 2023 · 16 citations
- TherapyPal: Towards a Privacy-Preserving Companion Diagnostic Tool based on Digital Symptomatic PhenotypingHuining Li, Xiaoye Qian, Ruokai Ma, Chenhan Xu et al.MobiCom 2023 · 2 citations
Related papers
- Let's Draw: Detecting and Measuring Parkinson's Disease on SmartphonesElina Kuosmanen, Valerii Kan, Aku Visuri, Simo Hosio et al.CHI 2020 · 21 citations
- Contactless Upper-Limb Bradykinesia Monitoring for Parkinson's Disease via Semantic-Aware mmWave Sensing in Daily LifeJinjian Wang, Qingyong Hu, Yizhen Zhang, Yuxuan Zhou et al.UbiComp 2026
- Self-tracking in Parkinson's The Lived Efforts of Self-managementJenny Vafeiadou, Asimina Vasalou, George RoussosCSCW 2021 · 15 citations
- AI-Enabled Conversational Journaling for Advancing Parkinson's Disease Symptom TrackingMashrur Rashik, Shilpa Sweth, Nishtha Agrawal, Saiyyam Kochar et al.CHI 2025 · 12 citations
- TULIP: Multi-Camera 3D Precision Assessment of Parkinson's DiseaseKyungdo Kim, Sihan Lyu, Sneha Mantri, Timothy W. DunnCVPR 2024
