e.g. mhealth
Search Results (1 to 10 of 33 Results)
Download search results: CSV END BibTex RIS
Skip search results from other journals and go to results- 11 JMIR Diabetes
- 6 JMIR Formative Research
- 5 JMIR Research Protocols
- 3 Interactive Journal of Medical Research
- 2 JMIR Medical Informatics
- 2 Journal of Medical Internet Research
- 1 JMIR Human Factors
- 1 JMIR Nursing
- 1 JMIR Serious Games
- 1 JMIR mHealth and uHealth
- 0 Medicine 2.0
- 0 iProceedings
- 0 JMIR Public Health and Surveillance
- 0 JMIR Mental Health
- 0 JMIR Rehabilitation and Assistive Technologies
- 0 JMIR Preprints
- 0 JMIR Bioinformatics and Biotechnology
- 0 JMIR Medical Education
- 0 JMIR Cancer
- 0 JMIR Challenges
- 0 JMIR Biomedical Engineering
- 0 JMIR Data
- 0 JMIR Cardio
- 0 Journal of Participatory Medicine
- 0 JMIR Dermatology
- 0 JMIR Pediatrics and Parenting
- 0 JMIR Aging
- 0 JMIR Perioperative Medicine
- 0 JMIRx Med
- 0 JMIRx Bio
- 0 JMIR Infodemiology
- 0 Transfer Hub (manuscript eXchange)
- 0 JMIR AI
- 0 JMIR Neurotechnology
- 0 Asian/Pacific Island Nursing Journal
- 0 Online Journal of Public Health Informatics
- 0 JMIR XR and Spatial Computing (JMXR)
CGM: continuous glucose monitoring; HIIT: high-intensity interval training; i-IFG: isolated impaired fasting glucose; OGTT: oral glucose tolerance test; REDCap: Research Electronic Data Capture.
Potential participants will be identified using Emory’s electronic health care records system, known as “My Chart.”
JMIR Res Protoc 2025;14:e59842
Download Citation: END BibTex RIS
Moreover, continuous glucose monitoring (CGM) has also been shown to improve glycemic outcomes for people with T2 D [3]. CGM can provide a comprehensive assessment of the impact of foods and other behaviors on glucose in real time and over the course of time. People with T2 D may benefit from using CGM data to guide food choices that help achieve their desired glycemic goals, including time in range (TIR; percent time with glucose levels between 70-180 mg/d L).
JMIR Diabetes 2025;10:e67636
Download Citation: END BibTex RIS
Type 2 diabetes (T2 D) is a disease in which peripheral insulin resistance associated with pancreatic beta-cell dysfunction leads to chronically elevated blood glucose levels [1]. If left unchecked over long periods of time, high glucose levels lead to vascular complications such as increased risk of cardiovascular diseases, diabetic nephropathy, neuropathy, retinopathy, and lower limb amputation [2].
JMIR Res Protoc 2024;13:e63598
Download Citation: END BibTex RIS
In total, 2 studies have addressed the importance of culturally sensitive apps for diabetes management to improve blood glucose in Asian people with diabetes [14,15]. They identified the gap in culturally tailored content and features that address specific dietary habits, lifestyle practices, and health beliefs of diverse ethnic populations.
JMIR Diabetes 2024;9:e63393
Download Citation: END BibTex RIS
Improved glucose sensing techniques have led to the increased availability of continuous glucose monitoring (CGM) technology for patients with diabetes. These minimally invasive sensors measure the glucose concentration of the interstitial fluid every 1 or 5 minutes, representing the blood glucose concentration with an average delay of 10-12 minutes [1,2]. CGM provides insights into glucose concentration fluctuations throughout the day and enables comparisons over time using predefined glucose metrics.
Interact J Med Res 2024;13:e50849
Download Citation: END BibTex RIS
Cardiovascular Comorbidities in COVID-19: Comprehensive Analysis of Key Topics
“Disorders of Glucose Metabolism” follow (with an increase of ∆f[Me SH]=1.14% and a ratio of R[Me SH]=2.46), and “Disorders of Acid-Base Balance” come in third (with an increase of ∆f[Me SH]=0.06% and a ratio of R[Me SH]=1.47).
Comparative analysis of level 1 (LV1) subbranch disease descriptor frequencies in COVID-19–related articles.
Interact J Med Res 2024;13:e55699
Download Citation: END BibTex RIS
Managing diabetes involves consistent and ongoing care due to its chronic nature, and blood glucose monitoring has long been the gold standard for patients with diabetes to self-monitor their blood glucose levels for decades [5]. A successor to the familiar periodic fingerstick monitoring technique, continuous glucose monitoring enables individuals with diabetes to self-monitor their blood glucose continuously day and night, eliminating the burden of frequent, unpleasant finger pricks [5].
JMIR Diabetes 2024;9:e58832
Download Citation: END BibTex RIS
Biochemical Changes in Adult Male Gamers During Prolonged Gaming: Pilot Study
The parameters that have been investigated most thoroughly are blood glucose and cortisol. For blood glucose levels, gaming does not appear to increase glucose levels within the first 20 minutes of a gaming session [15,16]. Chaput et al [15] reported that gaming increased blood glucose levels after 40 minutes of a 60-minute gaming session.
Cortisol has been used as a marker of both physiological and mental stress during gaming [17-19].
Interact J Med Res 2024;13:e46570
Download Citation: END BibTex RIS
Traditionally, DSME is done face-to-face, but digital tools can facilitate health behavior change and significantly improve glucose regulation in patients with T2 D [17]. Effective digital tools are self-monitoring (eg, continuous glucose monitoring [CGM]) and telemonitoring by health care professionals (HCPs) [18,19]. Mobile phone apps providing automated feedback can also be effective in improving lifestyle modification and glucose regulation for people with T2 D [20].
JMIR Hum Factors 2024;11:e45055
Download Citation: END BibTex RIS
Recently, continuous glucose monitoring (CGM) has demonstrated good potential to predict hypoglycemia. For patients who wear insulin pumps or those who require multiple daily insulin injections, hypoglycemia prediction based on CGM data could provide a timely warning of impending hypoglycemia for the individual to take immediate action and increase their glucose levels.
JMIR Med Inform 2024;12:e56909
Download Citation: END BibTex RIS