Mark W Orme

Dr. Mark W Orme

Department of Respiratory Sciences, University of Leicester, Leicester LE1 7RH, UK
orcid

Research Focus & Metrics

Academic Career Length

13Years (2014-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

View All Publications
10 March 2014 in International Journal of Behavioral Nutrition and Physical Activity
Verified
Journal Article
Open access
PDF file
MOMark W Orme
Mark W Orme
KWKatrien Wijndaele
Katrien Wijndaele
SSStephen J Sharp
Stephen J Sharp
KWKate Westgate
Kate Westgate
UEUlf Ekelund
Ulf Ekelund
SBSoren Brage
Soren Brage
It is difficult to compare accelerometer-derived estimates of moderate-to-vigorous physical activity (MVPA) between studies due to differences in data processing procedures. We aimed to evaluate the effects of accelerometer processing options on total and bout-accumulated time spent in MVPA in adults.

11 April 2018 in JMIR mHealth and uHealth
Verified
Journal Article
Open access
MOMark W Orme
Mark W Orme
AWAmie E Weedon
Amie E Weedon
PSPaula M Saukko
Paula M Saukko
DEDale Esliger
Dale Esliger
MMMike D Morgan
Mike D Morgan
SSSally J Singh
Sally J Singh
Mobile and tablet apps, ubiquitous and pervasive computing, wearable computing and domotics for health.

28 October 2019 in JMIR mHealth and uHealth
Verified
Journal Article
Open access
MWMaxine Whelan
Maxine Whelan
MOMark W Orme
Mark W Orme
AKAndrew Kingsnorth
Andrew Kingsnorth
Lauren SherarLauren Sherar
Lauren Sherar
Francesca DentonFrancesca Denton
Francesca Denton
DEDale Esliger
Dale Esliger
Background: Self-monitoring of behavior (namely, diet and physical activity) and physiology (namely, glucose) has been shown to be effective in type 2 diabetes (T2D) and prediabetes prevention. By combining self-monitoring technologies, the acute physiological consequences of behaviors could be shown, prompting greater consideration to physical activity levels today, which impact the risk of developing diabetes years or decades later. However, until recently, commercially available technologies have not been able to show individuals the health benefits of being physically active. Objective: The objective of this study was to examine the usage, feasibility, and acceptability of behavioral and physiological self-monitoring technologies in individuals at risk of developing T2D. Methods: A total of 45 adults aged ≥40 years and at moderate to high risk of T2D were recruited to take part in a 3-arm feasibility trial. Each participant was provided with a behavioral (Fitbit Charge 2) and physiological (FreeStyle Libre flash glucose monitor) monitor for 6 weeks, masked according to group allocation. Participants were allocated to glucose feedback (4 weeks) followed by glucose and physical activity (biobehavioral) feedback (2 weeks; group 1), physical activity feedback (4 weeks) followed by biobehavioral feedback (2 weeks; group 2), or biobehavioral feedback (6 weeks; group 3). Participant usage (including time spent on the apps and number of glucose scans) was the primary outcome. Secondary outcomes were the feasibility (including recruitment and number of sensor displacements) and acceptability (including monitor wear time) of the intervention. Semistructured qualitative interviews were conducted at the 6-week follow-up appointment. Results: For usage, time spent on the Fitbit and FreeStyle Libre apps declined over the 6 weeks for all groups. Of the FreeStyle Libre sensor scans conducted by participants, 17% (1798/10,582) recorded rising or falling trends in glucose, and 24% (13/45) of participants changed ≥1 of the physical activity goals. For feasibility, 49% (22/45) of participants completed the study using the minimum number of FreeStyle Libre sensors, and a total of 41 sensors were declared faulty or displaced. For acceptability, participants wore the Fitbit for 40.1 (SD 3.2) days, and 20% (9/45) of participants and 53% (24/45) of participants were prompted by email to charge or sync the Fitbit, respectively. Interviews unearthed participant perceptions on the study design by suggesting refinements to the eligibility criteria and highlighting important issues about the usability, wearability, and features of the technologies. Conclusions: Individuals at risk of developing T2D engaged with wearable digital health technologies providing behavioral and physiological feedback. Modifications are required to both the study and to commercially available technologies to maximize the chances of sustained usage and behavior change. The study and intervention were feasible to conduct and acceptable to most participants. Trial Registration: International Standard Randomized Controlled Trial Number (ISRCTN) 17545949; isrctn.com/ISRCTN17545949

8 November 2020 in Journal of Global Health
Verified
Journal Article
Open access
MOMark W Orme
Mark W Orme
RFRobert C Free
Robert C Free
AMAdrian Manise
Adrian Manise
AJAmy V Jones
Amy V Jones
AAAzamat Akylbekov
Azamat Akylbekov
SSSally J Singh
Sally J Singh

1 February 2019 in International Journal of Chronic Obstructive Pulmonary Disease
Verified
Journal Article
Open access
PDF file
MOMark W Orme
Mark W Orme
MSMichael C Steiner
Michael C Steiner
MMMike D Morgan
Mike D Morgan
AKAndrew Kingsnorth
Andrew Kingsnorth
DEDale W Esliger
Dale W Esliger
LSLauren B Sherar
Lauren B Sherar
Background: The constructs and interdependency of physical behaviors are not well described and the complexity of physical activity (PA) data analysis remains unexplored in COPD. This study examined the interrelationships of 24-hour physical behaviors and investigated their associations with participant characteristics for individuals with mild–moderate airflow obstruction and healthy control subjects. Patients and methods: Vigorous PA (VPA), moderate-to-vigorous PA (MVPA), light PA (LPA), stationary time (ST), average movement intensity (vector magnitude counts per minute), and sleep duration for 109 individuals with COPD and 135 healthy controls were obtained by wrist-worn accelerometry. Principal components analysis (PCA) examined interrelationships of physical behaviors to identify distinct behavioral constructs. Using the PCA component loadings, linear regressions examined associations with participant (+, positive correlation; -, negative correlation), and were compared between COPD and healthy control groups. Results: For both groups PCA revealed ST, LPA, and average movement intensity as distinct behavioral constructs to MVPA and VPA, labeled “low-intensity movement” and “high-intensity movement,” respectively. Sleep was also found to be its own distinct behavioral construct. Results from linear regressions supported the identification of distinct behavioral constructs from PCA. In COPD, low-intensity movement was associated with limitations with mobility (-), daily activities (-), health status (+), and body mass index (BMI) (-) independent of high-intensity movement and sleep. High-intensity movement was associated with age (-) and self-care limitations (-) independent of low-intensity movement and sleep. Sleep was associated with gender (0= female, 1= male; [-]), lung function (-), and percentage body fat (+) independent of low-intensity and high-intensity movement. Conclusion: Distinct behavioral constructs comprising the 24-hour day were identified as “low-intensity movement,” “high-intensity movement,” and “sleep” with each construct independently associated with different participant characteristics. Future research should determine whether modifying these behaviors improves health outcomes in COPD.

1 January 2021 in Respiratory Medicine
Verified
Journal Article
Open access
GFGrace France
Grace France
MOMark W Orme
Mark W Orme
NGNeil J. Greening
Neil J. Greening
MSMichael C. Steiner
Michael C. Steiner
ECEmma J. Chaplin
Emma J. Chaplin
SSSally J. Singh
Sally J. Singh
Background: Cognitive impairment (CI) is prevalent in COPD and is associated with poor health-related quality of life. Recovery of cognition following an acute exacerbation of COPD (AECOPD), the impact of CI on pulmonary rehabilitation (PR) uptake and the effect of PR on CI are not fully understood. Methods: This 6-week prospective study analysed 67 people with stable COPD symptoms who completed PR (PR group) and the recovery of 45 people admitted for AECOPD (AECOPD group). All participants were assessed for cognitive function (Montreal Cognitive Assessment [MoCA]), health status (COPD Assessment Test, Chronic Respiratory Questionnaire), lower extremity function (Short Physical Performance Battery), and psychological well-being (Hospital Anxiety and Depression Score). Follow up assessments were carried out after a 6-week recovery post-discharge in AECOPD group and after PR in the PR group. Results: AECOPD group showed no improvement in MoCA following a 6-week recovery post-discharge (Delta-0.8 +/- 3.2, p = 0.205), despite improvements in all other clinical outcomes. PR uptake among the AECOPD group was not associated with the presence of CI (p = 0.325). Participants in the PR group with CI at baseline showed a significant improvement in MoCA score following PR (Delta 1.6 +/- 2.4, p = 0.004). Conclusions: Cognition does not improve following 6-week recovery post-AECOPD, and CI may influence patients' response to PR referral as an inpatient. PR improves cognition in people with stable COPD symptoms and CI. People with AECOPD should be actively encouraged to attend PR irrespective of mild-moderate cognition but may require additional support or opportunities to take part.