Top Pediatric Mobile Apps: Assessment and Analysis Tools

| Posted in: Science Health Sciences

Journal name: The Malaysian Journal of Medical Sciences
Original article title: Top Mobile Applications in Pediatrics and Children’s Health: Assessment and Intelligent Analysis Tools for a Systematic Investigation
The Malaysian Journal of Medical Sciences (MJMS) is a peer-reviewed, open-access journal published online at least six times a year. It covers all aspects of medical sciences and prioritizes high-quality research.
This page presents a generated summary with additional references; See source (below) for actual content.

Original source:

This page is merely a summary which is automatically generated hence you should visit the source to read the original article which includes the author, publication date, notes and references.

Author:

Seyed Mohamad Hosein Mousavi Jazayeri, Amir Jamshidnezhad


The Malaysian Journal of Medical Sciences:

(A peer-reviewed, open-access journal)

Full text available for: Top Mobile Applications in Pediatrics and Children’s Health: Assessment and Intelligent Analysis Tools for a Systematic Investigation

Year: 2019 | Doi: 10.21315/mjms2019.26.1.2

Copyright (license): CC BY 4.0


Download the PDF file of the original publication


Summary of article contents:

Introduction

The rapid development of intelligent software has transformed various sectors, particularly in mobile health (mHealth), which has emerged as a vital tool for childcare, offering resources for parents managing children's health issues. A systematic review was conducted to evaluate the functionalities of mobile applications available for pediatric intelligent diagnosis and healthcare. The study identified 379 potential applications through a detailed search in the Apple App Store and Google Play Store, eventually narrowing it down to a few that met specific inclusion criteria related to patient monitoring and artificial intelligence (AI) tools.

The Role of Artificial Intelligence in Healthcare Apps

Despite the promising potential of AI in healthcare applications, the findings from this review indicated that AI's implementation in diagnostic apps was minimal. Challenges such as the limited capabilities of mobile hardware and software, alongside the complexity of developing reliable intelligent algorithms, hindered the effective use of AI in app functionalities. Of the applications assessed, only four (three from Google Play Store and one from iTunes Store) met all the criteria, including the integration of intelligent tools aimed at supporting pediatric health. This demonstrates the necessity for improved algorithms and better integration of AI technology to enhance diagnostics and decision support in mHealth applications.

Conclusion

The results of this investigation underscore the current limitations of mobile health applications in pediatric care, particularly in integrating features that enhance diagnostic capabilities and decision-making processes. Although mHealth apps have the potential to offer significant health monitoring solutions, their effectiveness in pediatric diagnosis remains constrained by the underutilization of AI. Further research should focus on developing applications that not only meet the specific needs of pediatric healthcare but also ensure secure, reliable usage and evaluation by medical professionals.

FAQ section (important questions/answers):

What was the purpose of the systematic review conducted in the study?

The systematic review aimed to survey the functionalities of mobile health applications intended for pediatric intelligent diagnosis and children’s healthcare, focusing on features like patient monitoring, decision support, and diagnostic capabilities involving artificial intelligence.

How many apps were initially identified for the review?

A total of 379 potential mobile health applications were identified using the search features of the Apple App Store and Google Play Store, which were then assessed for inclusion based on specific criteria.

What were the primary findings about artificial intelligence in health apps?

The results indicated that artificial intelligence was minimally used in diagnostic apps. Only a few applications met the inclusion criteria, showcasing limited implementation of intelligent algorithms due to hardware and software constraints.

What limitations did the study identify regarding the reviewed apps?

The study highlighted several limitations, including the limited number of sampled apps, a focus primarily on medical rather than general health apps, and a lack of scientific information assessing the diagnostic performance of the applications.

Glossary definitions and references:

Scientific and Ayurvedic Glossary list for “Top Pediatric Mobile Apps: Assessment and Analysis Tools”. This list explains important keywords that occur in this article and links it to the glossary for a better understanding of that concept in the context of Ayurveda and other topics.

1) Table:
The term 'Table' in this context likely refers to the structured presentation of data, which summarizes findings from the research. Tables are essential tools for demonstrating relationships among variables, facilitating comparison of results across different mobile health applications and their functionalities in pediatric healthcare.

2) Disease:
'Disease' represents a pathological condition affecting individuals and is central to the study of mobile health apps. Understanding various diseases guides the development of these applications, focusing on diagnosis, monitoring, and treatment efficacy in pediatric care, thereby promoting better health outcomes for affected children.

3) Study (Studying):
'Study' indicates the systematic investigation undertaken to assess the capabilities and effectiveness of mobile health applications. The research endeavor is crucial in evaluating the integration of technologies, such as artificial intelligence, in supporting pediatric diagnosis, ultimately aiding healthcare professionals and parents alike.

4) Performance:
'Performance' pertains to the effectiveness and efficiency of mobile health applications in delivering clinical decision support and diagnostics. Evaluating how well these apps function in real-world scenarios is vital for determining their utility, paving the way for improvements and enhanced user experience in healthcare settings.

5) Learning:
'Learning' relates to the knowledge acquisition process within application development, particularly in AI systems. Apps that incorporate learning algorithms can refine their diagnostic capabilities over time, adapting to new data inputs and enhancing the accuracy of health assessments for children with various conditions.

6) Knowledge:
'Knowledge' refers to the information and understanding gained through the study of medical sciences. In the context of mobile health apps, it reflects the importance of integrating clinical data and insights into the app’s functionalities, helping to provide evidence-based support for diagnosis and healthcare.

7) Medicine:
'Medicine' is the field concerned with the diagnosis, treatment, and prevention of diseases. This research contextualizes mobile health applications within the broader medical framework, highlighting their roles in enhancing patient care, especially for children, and exploring the impact of technology on traditional medical practices.

8) Field:
'Field' delineates the specific domain of study, which in this case encompasses mobile health applications and pediatric healthcare. It sets the stage for understanding how technologies can be harnessed within a defined area to improve health outcomes and inform clinical practice effectively.

9) Science (Scientific):
'Science' encompasses the structured approach to studying phenomena, vital for developing mobile health applications. It emphasizes the importance of understanding human health, disease mechanisms, and intervention strategies in creating effective applications that support healthcare providers and patients in pediatrics.

10) Perception:
'Perception' involves the way users view and interpret the usefulness of mobile health applications. This aspect is crucial as user acceptance affects the utilization of these tools in practice, thereby influencing their design and functionality, as well as overall engagement with healthcare delivery.

11) Language:
'Language' signifies the importance of communication in medical applications, particularly in providing information in accessible terms for users. It reflects the need for mobile health apps to cater to diverse populations, ensuring that health literacy is considered in their development for enhanced user engagement.

12) Sign:
'Sign' refers to the symptoms or indicators of health conditions, critical in diagnosing diseases. Mobile health applications utilize these signs to assist healthcare professionals and users in identifying potential health issues, ultimately guiding clinical decision-making processes for children's health.

13) Transformation (Transform, Transforming):
'Transform' highlights the capability of mobile health applications to revolutionize healthcare delivery. With the introduction of technology, especially AI, healthcare practices are evolving, promoting innovative approaches to diagnosis, treatment, and patient interaction, particularly in pediatrics.

14) Quality:
'Quality' represents the standard of care delivered through mobile health applications. Assessing the quality of these applications is critical for ensuring they meet clinical guidelines, yield valid findings, and support healthcare providers effectively while enhancing patient safety and satisfaction.

15) Cancer:
'Cancer' denotes the focus on a complex group of diseases characterized by uncontrolled cell growth. The study of mobile health apps in relation to cancer highlights their potential in screening, monitoring, and managing cancer care, particularly in pediatric oncology contexts.

16) Rules:
'Rules' encompass guidelines or protocols derived from clinical evidence that dictate the recommended practices. Mobile health applications are designed to follow such rules to ensure that health interventions are based on solid and reliable evidence, improving their effectiveness in practice.

17) Life:
'Life' relates to the biological and health aspects concerning individuals. In the context of mobile health, the aim is to enhance the quality of life through better disease management and health monitoring, addressing the needs of pediatric populations in particular.

18) Measurement:
'Measurement' refers to the process of quantifying the functionalities and effectiveness of mobile health applications. Rigorous measurement techniques are essential for evaluating outcomes, establishing benchmarks, and ensuring that these tools positively impact pediatric healthcare delivery.

19) Discussion:
'Discussion' reflects the analysis and interpretation of findings derived from the study. It offers insights into the implications of the results obtained, addressing the relevance of mobile health applications for pediatric healthcare professionals, parents, and their potential applications in clinical settings.

20) Education:
'Education' emphasizes the role of mobile health applications as informative tools that facilitate learning about health issues among users. Apps serve as resources for parents and children, enhancing health literacy and empowering them in managing their conditions effectively.

21) Roman (Roma):
'Roman' might appear as a reference or part of a name related to the study or its contributors. The context does not provide clarity on its relevance, but it could relate to a historical influence or cultural aspect in the medical field.

22) Kitai:
'Kitai' refers to possibly an author or a contributor related to the study. Identifying prominent individuals adds credibility to the research and their viewpoints may offer insights into the development and implications of mobile health applications.

23) Patel:
'Patel' indicates another contributor to the research mentioned. Recognizing contributors reinforces the collaborative nature of scientific research. Their involvement is significant in shaping the conclusions drawn about mobile health applications and their applications in pediatric settings.

24) Annal:
'Annal' refers to annual or yearly records, often associated with reports or documentation in the medical field. It may relate to the systematic review approach used in the study to compile and present findings regarding mobile health apps.

25) Sama (Shama):
'Sama' likely represents a significant contributor to the research. Their role could influence the outcomes and perspectives presented in the study, enhancing the understanding of mobile health applications' functionality and effectiveness in pediatrics.

26) Sah:
'Shah' may denote another key figure in the study. As part of the research team, their insights and expertise contribute to the findings. Understanding the backgrounds of these individuals may provide additional context for the interpretations made.

27) Peng:
'Peng' refers to a contributor possibly involved in the research process. As with other names, recognizing contributors serves to establish a network of experts collaborating on mobile health applications and emphasizing their scientific contributions to the field.

28) Diet:
'Diet' pertains to dietary habits and nutritional information, which may be supported by mobile health apps. Understanding the important role of diet in health, particularly in pediatrics, determines the effectiveness of these tools in managing conditions, like obesity or diabetes.

29) Ter:
'Ther' may refer to therapies or therapeutic methods discussed in connection with mobile health applications. Recognizing therapeutic interventions underscores the importance of integrating various health aspects into app development for enhanced user support and education.

30) Pir:
'Peer' implies the involvement of professional or community support systems. In mobile health, peer support can enhance user engagement and provide insights into effective self-management strategies for health conditions, especially among children and adolescents.

31) Calculation:
'Calculation' relates to the mathematical computations often integrated into mobile health applications to assess health data, diagnose conditions, or recommend treatments. Accurate calculations are vital for ensuring the reliability and effectiveness of the provided healthcare suggestions.

32) Reliability:
'Reliability' signifies the consistency and dependability of mobile health applications in delivering accurate diagnostic support and health monitoring. For apps to be trusted among users and healthcare professionals, high reliability must be demonstrated through testing and continuous validation.

33) Observation:
'Observation' pertains to the systematic monitoring and recording of health data through mobile applications. Observational capabilities are crucial for tracking patient outcomes and assessing the efficacy of interventions, particularly in pediatric health management.

34) Training:
'Training' refers to the process of educating healthcare professionals or users on effectively utilizing mobile health applications. Adequate training promotes better engagement with the technology, ensuring that its benefits are maximized for improved health outcomes.

35) Account:
'Account' refers to documenting findings, experiences, or case studies pertaining to mobile health applications. Keeping accounts enhances the understanding of their practical implications and effectiveness, providing a foundation for future research and improvements.

36) Nature:
'Nature' signifies the fundamental characteristics and complexities of health conditions addressed by mobile health applications. Understanding the nature of various diseases is crucial in developing effective tools that cater to specific health needs, particularly in pediatric care.

37) Desire:
'Desire' reflects the aspirations for improved health outcomes and better engagement with pediatric healthcare through mobile applications. The desire for innovative solutions drives the development of these technologies, aiming to enhance user experiences and results.

38) Line:
'Line' may refer to the continuity of care or established protocols within mobile health applications. Ensuring a clear line of communication and care between patients, families, and healthcare providers is vital for optimizing health management practices.

39) Post:
'Post' relates to the follow-up stages in evaluating health interventions via mobile applications. Effective post-intervention monitoring is essential for assessing outcomes, refining practices, and ensuring the sustainability of health improvements in pediatric populations.

Other Health Sciences Concepts:

[back to top]

Discover the significance of concepts within the article: ‘Top Pediatric Mobile Apps: Assessment and Analysis Tools’. Further sources in the context of Health Sciences might help you critically compare this page with similair documents:

Ai, Io, Artificial intelligence, Differential diagnosis, Medical administration, Medical education, Scientific literature, Medical literature, Patient care, Medical information, Paediatrics, Research study, Statistical analysis, Health care, Medical diagnosis, Data analysis, Health education, Mobile phone, Inclusion criteria, Exclusion criteria, Clinical trial, Patient Monitoring, Parkinson's disease, Fuzzy logic, Systematic Review, Medical imaging, Disease management, Telemedicine, Diagnostic accuracy, Machine Learning, Biological effect, Medical field, Scientific evaluation, Healthcare sector, Health condition, Health information, Weight Management, Health outcome, Statistical analysis methods, Scientific background, Health monitoring, Artificial Neural Network, Clinical performance, Mobile technology, Mobile apps, Health insurance, Intervention studies, Predictive Model, Healthcare professional, Mobile application, Pediatrics, Patient engagement, Medical error, Health care education, Healthcare outcomes, Electronic medical record, Pharmaceutical services, Symptom analysis, Digital Health, Natural language processing, User satisfaction, Electronic health record, Health record, Therapeutic method, Pharmaceutical information, Clinical decision support, Screening tool, Clinical Implementation, Clinical factors, Medical professional, Intelligent software, Mobile health, Childcare applications, Pediatrics intelligent diagnosis, Children healthcare, Diagnosis support, Decision support, User health record, Disease awareness, Algorithmic errors, Health apps, Cognitive computing, Clinical specialists, Clinical decision support system, Patient data, Chronic Disease Patients, Mobile device, Clinical practice guideline, Signal processing, Internal disease, Computer programmes, Medical record, Preventative services, Medical industry, Mobile health apps, Google Play Store, Apple App Store, Intelligent algorithms, Stroke imaging, Algorithms, Swarm intelligence, K-nearest neighborhood, Machine intelligence, AI algorithm, Intelligent machine learning, Automated diagnostics, AI categorisation process, Powerful diagnostic support, PAIRS Medical Diagnosis, Bayesian probabilistic techniques, Intelligent algorithm, Probability theory, Diagnostic apps, General health apps, Health users, End-user acceptability, Security and privacy, AI techniques, Symptoms to cluster, Mobile hardware, Software, Intelligent model, AI app, Bayesian probabilistic, Algorithm, Machine learning algorithm, Medical service, Intelligent diagnosis, Mobile platform, Android apps, IOS apps, Smartphone, MHealth apps, E-Science, Healthcare experts, Patient health records, Mobile app, Mobile markets, Online patient check-up, Medical academic institutions, Health care criteria, Health related messages, Mobile health care, Disease encyclopedia, Algorithm errors, Disease text information, Doctors address information, User health monitoring, Children and adolescents scope, Intelligent algorithms for data analysis, Medical terminology, Medical diagnosis tool, Android, Android platform, IOS platform, Health monitoring apps, NLP or Natural Language Processing, Medical apps, AI was used, OneRing App, PAIRS App, Diagnostic support tools, Sick user, AI processes, Mobile software.

Let's grow together!

I humbly request your help to keep doing what I do best: provide the world with unbiased sources, definitions and images. Your donation direclty influences the quality and quantity of knowledge, wisdom and spiritual insight the world is exposed to.

Let's make the world a better place together!

Like what you read? Help to become even better: