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A comparative health infographic in two parts. The top half illustrates the Limitations of 'Normal' Clinical Ranges showing a general population statistical average on a bell curve, pointing out that individuals can have 'normal' results but a terrible Quality of Life. The bottom half depicts the Goal of Self-Research: 'Optimal' Personal Baseline with images of graphs on devices, a man in a crown for 'Optimized Quality of Life', and text that states Compare Individuals to Themselves, NOT the Crowd, for Actual Optimized Living and Longitudinal data is key to precision medicine. with a chart plotting personalized data over time.

A comparative health infographic in two parts. The top half illustrates the Limitations of 'Normal' Clinical Ranges showing a general population statistical average on a bell curve, pointing out that individuals can have 'normal' results but a terrible Quality of Life. The bottom half depicts the Goal of Self-Research: 'Optimal' Personal Baseline with images of graphs on devices, a man in a crown for 'Optimized Quality of Life', and text that states Compare Individuals to Themselves, NOT the Crowd, for Actual Optimized Living and Longitudinal data is key to precision medicine. with a chart plotting personalized data over time.

Mood, pain, and fatigue aren't "soft" data—they are the ultimate endpoints.

If a biomarker improves but your lived experience doesn't, the intervention failed.

Stop optimizing for the dashboard. Start optimizing for the human.

#DigitalPhenotyping #PersonalScience #QualityOfLife

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Smartwatch-Derived #Digital Phenotypes Relate to Psychopathology Dimensions in Patients With Psychotic Spectrum Disorders: Longitudinal Observational Study Background: #Digital phenotyping refers to the objective measurement of human behavior via devices such as smartphones or watches and constitutes a promising advancement in personalized medicine. #Digital phenotypes derived from heart rate, mobility, or sleep schedule data utilized in psychiatry to either diagnose individuals with psychotic disorders, or to predict relapse as a binary outcome. Machine learning models so far have achieved predictive accuracies that are significant but have not large enough for clinical #Applications. This could hinge on broad clinical definitions, which encompass heterogenous symptom and sign ensembles, thus hindering accurate classification. The five-factor model for the Positive and Negative Symptom Scale (PANNS), which entails five independently varying dimensions, is thought to better capture symptom variability. Utilizing the specific definitions of this refined clinical taxonomy in combination with #Digital phenotypes could yield more precise results. Objective: The present study aims to investigate potential links between #Digital phenotypes and each dimension of the five-factor PANNS model. We also assess whether clinical, demographic and medication variables confound said relations. Methods: In the E-prevention study, heart rate, accelerometer, gyroscope and sleep schedule data were continuously collected via smartwatch for a maximum of 24 months, in 38 patients with psychotic spectrum disorders. Obtaining the mean and standard deviation for each patient-month, resulted in a database consisting of more than 740 monthly data points. A linear mixed model analysis was used to ascertain connections between monthly aggregated heart rate and mobility features and the 5 symptom dimension scores of PANNS, obtained during monthly clinical interviews. Results: The positive symptom dimension was associated with increased sympathetic and decreased parasympathetic tone, while the negative dimension was mainly connected to decreased mobility during wakefulness. For the excitement/hostility and the #depression/#anxiety dimension we report an increase in motor activity during sleep while only excitement/hostility was related to increase in sympathetic heart activation and decreased sleep. The cognitive/disorganization dimension was related to decreased variability in sympathetic activation during wakefulness. Conclusions: This study provides evidence that biological changes assessed by continuous measurement of #Digital phenotypes could be characteristic of specific symptom clusters rather than entire diagnostic categories of psychotic disorders. These results support the use of #Digital phenotypes not only as means for remote patient monitoring, but as concrete targets for biomarker research in psychotic disorders.

JMIR Mental Health: Smartwatch-Derived #Digital Phenotypes Relate to Psychopathology Dimensions in Patients With Psychotic Spectrum Disorders: Longitudinal Observational Study #DigitalPhenotyping #Psychiatry #MentalHealth #Smartwatch #MachineLearning

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#affectivecomputing #AIchatbotsmentalhealth #AIinPTSDtherapy #behavioralhealth #CBT #Chatbots #cliniciandecisionsupport #CPT #digitalphenotyping #digitaltherapeutics #EMDR #mentalhealthtechnology #mentalhealthwearables #NLPintherapy #Personalizedmedicine
miltonmarketing.com/?p=81817

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Preprint here: osf.io/preprints/ps...

Thanks to all contributors: @drsarahsperry.bsky.social @eeskevanroekel.bsky.social, Manon Hillegers, and Esther Mesman! ✨

Feedback, questions, or collaboration ideas welcome!

#ESM #MentalHealth #AffectDynamics #DigitalPhenotyping #Psychology #OpenScience

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Investigating Awareness and Acceptance of Digital Phenotyping in Dhaka’s Korail Slum: Qualitative Study Background: Digital phenotyping (DP), the process of using data from digital devices, like smartphones and wearable technology to understand and monitor people's behaviour, health, and daily activities, has shown significant promise in mental health care within high-income countries (HICs). However, its application in lower and middle-income countries (LMICs) is limited, particularly among impoverished populations such as slum residents. Objective: This study investigates the awareness, knowledge, acceptance, and implementation of DP, including willingness to share data, and concerns regarding privacy and data security, among residents of Dhaka's Korail slum, one of Bangladesh's largest and most densely populated informal settlements. Understanding awareness, acceptance, and privacy concerns surrounding DP in these settings is critical for its effective implementation. Methods: We conducted eight focus group discussions (FGDs) with 38 participants (79% female, mean age 37 ± 13.7 years). Participants included 20 individuals diagnosed with serious mental disorders (SMDs) and 18 caregivers. The FGDs also included a section explaining what DP is. Results: Smartphone ownership was reported by 45% of participants, while 92% had access to a smartphone through family members. There was a general lack of awareness about DP among the participants. Initially, 92% (35/38) of participants had no prior knowledge of DP, but after receiving an explanation, they acknowledged its potential applications and benefits. Participants recognized the utility of DP for health monitoring, particularly in managing mental health conditions. Participants expressed willingness to share certain types of data, particularly phone usage and location data, provided that content-level information remained private. Despite these perceived benefits, significant concerns about privacy and data security emerged. Participants expressed fears about the potential misuse of their personal information, with some feeling resigned to the idea of already being constantly monitored. Trust in DP tools emerged as a critical factor for adoption, highlighting the need for transparent data protection policies and user control over data sharing. Additionally, participants emphasized the importance of adapting DP tools to local contexts, including cultural considerations and technological literacy. Conclusions: While DP presents a promising avenue for mental health support in underserved urban populations, its adoption in LMIC slum settings requires targeted educational initiatives, robust privacy safeguards, and community involvement to ensure trust and #usability. DP tools should be adapted to fit the cultural context of the target population, possibly involving modifications to the types of data collected or the way data is interpreted. In conclusion, while DP holds potential to improve mental health care in underserved communities, addressing barriers related to awareness, privacy, culture and #usability is crucial. Focusing on educational initiatives, robust data protection, cultural adaptation, user-friendly design, and community engagement, DP can become a valuable tool in bridging the mental health care gap in LMICs.

JMIR Formative Res: Investigating Awareness and Acceptance of Digital Phenotyping in Dhaka’s Korail Slum: Qualitative Study #DigitalPhenotyping #MentalHealth #HealthInnovation #DataPrivacy #TechnologyInHealth

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#feasibility of Collecting and Linking Digital Phenotyping, Clinical, and Genetics Data for Mental Health Research: Pilot Observational Study Background: Digital phenotyping, the process of using digital data to measure and understand behaviour and internal states, shows promise for predictive analytics in mental health when combined with other forms of data. However, linking digital phenotyping data to other datasets, particularly those that involve highly sensitive clinical and genetic data, is uncommon due to technical, ethical, and procedural difficulties. Understanding the #feasibility of collecting and linking this data is the first step to create novel multimodal datasets. Objective: The Mobigene Pilot Study explores the #feasibility of collecting and linking new data, primarily smartphone-collected digital phenotyping and clinical data, to genetic data from an existing cohort of adults with a history of depression (Australian Genetics of Depression Study; AGDS). This paper aims to: (1) describe rates of study uptake (e.g., number of consenting and eligible participants, number/proportion whose data could be linked) and adherence (e.g., number/proportion who completed baseline/post-surveys, number/proportion who dropped out); (2) describe levels of adherence and engagement with daily diaries; (3) identify openness to take part in similar research; and (4) determine whether these #feasibility indicators differ by current mental health symptoms. Methods: Participants aged 18-30 with genetic data from the AGDS were invited to take part in a two-week study. Participants completed a baseline demographic and mental health survey and then downloaded the Mind GRID app for digital phenotyping. Active data from cognitive, voice and typing tasks were collected once per day on days 1 and 11; daily diaries assessing self-reported mood were collected on days 2-10 (once/day for 9-days). Passive data (e.g., from Global Positioning Systems, accelerometers) were collected throughout the study. A post-survey was then completed. To measure #feasibility, we computed descriptive statistics to explore study uptake and adherence, daily diary adherence and engagement, and openness for future research. Correlations and t-tests explored the relationship between #feasibility indicators and mental health. Results: Out of 174 consenting and eligible participants, 153 completed the baseline survey (153/174, 87.9%) and 126 provided data that enabled linkage of genetic, self-report, and digital data (126/174, 72.4%). There were 100 unique participants after duplicate removal (100/174, 57.5%) and 69 provided complete data at post (69/174, 39.7%). Dropout occurred prior to completing the baseline survey (23/174, 13.2%) and during app data collection (31/174, 17.8%). Participants completed an average of 5.30 (SD=2.76) daily diaries. All participants who completed post surveys (69/69, 100%) expressed willingness to participate in similar future studies. #feasibility indicators were not related to current mental health symptoms (e.g., |ts|.27). Conclusions: It is feasible to collect and link multimodal datasets involving digital phenotyping, clinical, and genetic data. The next phase involves exploring links between digital phenotyping markers and clinical/genetic correlates to improve detection and prediction of mental health problems.

JMIR Formative Res: #feasibility of Collecting and Linking Digital Phenotyping, Clinical, and Genetics Data for Mental Health Research: Pilot Observational Study #MentalHealth #DigitalPhenotyping #GeneticResearch #ClinicalData #DataLinkage

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Bringing #DigitalMedicine piloted doi.org/10.1177/2055... to scale now doi.org/10.1101/2025... for time-specific #Phenotyping of patients w/ #ChronicKidneyDisease. #DigitalPhenotyping #HumanChronobiome #TranslationalScience

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An individual lying in bed at night in a dark room, focused on their phone, illuminated by the screen’s light.

An individual lying in bed at night in a dark room, focused on their phone, illuminated by the screen’s light.

The digital devices in our pockets could help diagnose #MentalHealth issues. Some researchers believe that #DigitalPhenotyping could become a crucial technique. A PNAS Core Concept explainer: www.pnas.org/doi/10.1073/...

#smartphone #schizophrenia #BipolarDisorder #depression

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An individual lying in bed at night in a dark room, focused on their phone, illuminated by the screen’s light.

An individual lying in bed at night in a dark room, focused on their phone, illuminated by the screen’s light.

#DigitalPhenotyping using #smartphones to track behavior could help guide #MentalHealth treatment. A PNAS Core Concept explainer: www.pnas.org/doi/10.1073/...

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Looking forward to our colloquium initiated from @mhealthlab.bsky.social! 🥳 #DigitalPhenotyping #MachineLearning #Wearables #PhysicalActivity #Research #Collaboration

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Webinar - Smart Apps, Smarter Matches: Using Sensor Data to Improve Mental Health Support Despite significant innovation in the mental health app space, low app usage has constrained their impact. In this webinar, Jane Mikkelson, Bridget Dwyer, and Dr. John Torous will discuss how digital phenotyping can personalize mobile app recommendations to improve user engagement. They will also talk about the crucial role of habit formation in sustaining app use and how the real-world applications of this research can enhance mental health support. The highlighted paper in this webinar: https://formative.jmir.org/2024/1/e62725 The webinar was held on February 28 Panelist of this webinar: Bridget Dwyer Jane Mikkelson Moderated by: John Torous, MD, MBI, Cofounder, Society of Digital Psychiatry Find out more about JMIR Mental Health: https://mental.jmir.org Find out more about the Society for Digital Psychiatry (SODP): https://www.sodpsych.org ### About JMIR Publications JMIR Publications is a leading, born-digital, open access publisher of 30+ academic journals and other innovative scientific communication products that focus on the intersection of health, and technology. Its flagship journal, the Journal of Medical Internet Research, is the leading digital health journal globally in content breadth and visibility, and is the largest journal in the medical informatics field. To learn more about JMIR Publications, please visit https://www.JMIRPublications.com or connect with us via: YouTube - / jmirpublications Facebook - / jmedinternetres Twitter - / jmirpub LinkedIn - / jmir-publications Instagram - / jmirpub Head Office - 130 Queens Quay East, Unit 1100 Toronto, ON, M5A 0P6 Canada Media Contact - Communications@JMIR.org The content of this communication is licensed under the terms of the Creative Commons Attribution License (https://creativecommons.org/licenses/..., which permits unrestricted use, distribution, and reproduction in any medium, provided the original work, published by JMIR Publications, is properly cited.

📢 Missed our recent webinar on personalizing #MentalHealthApp recommendations? Watch the recording now!

Panelists Bridget Dwyer, Jane Mikkelson, and moderator Dr. John Torous, MD MBI explore how #DigitalPhenotyping and habit formation can enhance app engagement.

🎥 Watch here: bit.ly/4bufQMK

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Multimodal #Digital Phenotyping Study in Patients With Major #depressive Episodes and Healthy Controls (Mobile Monitoring of Mood): Observational Longitudinal Study Background: Mood disorders are among the most common #MentalHealth conditions worldwide. Wearables and consumer-grade personal #Digital devices create #Digital traces that can be collected, processed, and analyzed, offering a unique opportunity to…

JMIR Mental Health: Multimodal #Digital Phenotyping Study in Patients With Major #depressive Episodes and Healthy Controls (Mobile Monitoring of Mood): Observational Longitudinal Study #DigitalPhenotyping #MentalHealth #Depression #BipolarDisorder #WearableTech

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Exploring the Psychological and Physiological Insights Through #Digital Phenotyping by Analyzing the Discrepancies Between Subjective Insomnia Severity and Activity-Based Objective Sleep Measures:… Background: Insomnia is a prevalent sleep disorder affecting millions worldwide, with significant impacts on daily functioning and quality of life. While traditionally assessed through subjective measures such as the Insomnia Severity Index (ISI), the…

JMIR Mental Health: Exploring the Psychological and Physiological Insights Through #Digital Phenotyping by Analyzing the Discrepancies Between Subjective Insomnia Severity and Activity-Based Objective Sleep Measures:… #Insomnia #SleepDisorder #DigitalPhenotyping #WearableTechnology #SleepHealth

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2/8 🔍Our #PRISMA review: integrating brain #MRI & portable, automatic devices (PADs) used for #digitalphenotyping 🧠94 Selected papers combined MRI & PAD signals in real-world settings, not just lab environments.

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1/8 "Studying feathers alone is not enough to explain how birds fly" (Marr, 1978). So why do the same with brain and behavior studies? Let's bridge the gap between MRI data and real-world behavior! But who has done it already? #BrainResearch #DigitalPhenotyping

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