Chester Ho

Dr. Chester Ho

orcid

Research Focus & Metrics

Academic Career Length

29Years (1998-Present)

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

Representative Publications

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1 August 2014 in Physical Medicine and Rehabilitation Clinics of North America
Verified
Journal Article
Closed access
CHChester Ho
Chester Ho
RTRonald Triolo
Ronald Triolo
AEAnastasia Leila Elias
Anastasia Leila Elias
KKKevin L. Kilgore
Kevin L. Kilgore
ADAnthony F. DiMarco
Anthony F. DiMarco
VMVivian K Mushahwar
Vivian K Mushahwar

1 March 2007 in Archives of Physical Medicine and Rehabilitation
Verified
Journal Article
Closed access
SKSteven C. Kirshblum
Steven C. Kirshblum
MPMichael M. Priebe
Michael M. Priebe
CHChester Ho
Chester Ho
WSWilliam M. Scelza
William M. Scelza
ACAnthony E. Chiodo
Anthony E. Chiodo
LWLisa-Ann Wuermser
Lisa-Ann Wuermser

1 March 2018 in Archives of Physical Medicine and Rehabilitation
Verified
Journal Article
Open access
CRCarly S. Rivers
Carly S. Rivers
NFNader Fallah
Nader Fallah
VNVanessa K. Noonan
Vanessa K. Noonan
DWDavid G. Whitehurst
David G. Whitehurst
CSCarolyn E. Schwartz
Carolyn E. Schwartz
LNLuc Noreau
Luc Noreau
To analyze relations among injury, demographic, and environmental factors on function, health-related quality of life (HRQoL), and life satisfaction in individuals with traumatic spinal cord injury (SCI). Prospective observational registry cohort study. Specialized acute and rehabilitation SCI centers. Participants (N=340) from the Rick Hansen Spinal Cord Injury Registry (RHSCIR) who were prospectively recruited from 2004 to 2014 were included. The model cohort participants were 79.1% men, with a mean age of 41.6±17.3 years. Of the participants, 34.7% were motor/sensory complete (ASIA Impairment Scale [AIS] grade A). None. Path analysis was used to determine relations among SCI severity (AIS grade and anatomic level [cervical/thoracolumbar]), age at injury, education, number of health conditions, functional independence (FIM motor score), HRQoL (Medical Outcomes Study 36-Item Short-Form Health Survey [Version 2] Physical Component Score [PCS] and Mental Component Score [MCS]), and life satisfaction (Life Satisfaction-11 [LiSat-11]). Model fit was assessed using recommended published indices. Goodness of fit of the model was supported by all indices, indicating the model results closely matched the RHSCIR data. Higher age, higher severity injuries, cervical injuries, and more health conditions negatively affected FIM motor score, whereas employment had a positive effect. Higher age, less education, more severe injuries (AIS grades A-C), and more health conditions negatively correlated with PCS (worse physical health). More health conditions were negatively correlated with a lower MCS (worse mental health), however were positively associated with reduced function. Being married and having higher function positively affected Lisat-11, but more health conditions had a negative effect. Complex interactions and enduring effects of health conditions after SCI have a negative effect on function, HRQoL, and life satisfaction. Modeling relations among these types of concepts will inform clinicians how to positively effect outcomes after SCI (eg, development of screening tools and protocols for managing individuals with traumatic SCI who have multiple health conditions).

12 June 2021 in Journal of NeuroEngineering and Rehabilitation
Verified
Journal Article
Open access
PDF file
JSJan W. van der Scheer
Jan W. van der Scheer
VGVictoria L. Goosey-Tolfrey
Victoria L. Goosey-Tolfrey
SVSydney E. Valentino
Sydney E. Valentino
GDGlen M. Davis
Glen M. Davis
CHChester Ho
Chester Ho
Objectives: The objective of this review was to summarize and appraise evidence on functional electrical stimulation (FES) cycling exercise after spinal cord injury (SCI), in order to inform the development of evidence-based clinical practice guidelines. Methods: PubMed, the Cochrane Central Register of Controlled Trials, EMBASE, SPORTDiscus, and CINAHL were searched up to April 2021 to identify FES cycling exercise intervention studies including adults with SCI. In order to capture the widest array of evidence available, any outcome measure employed in such studies was considered eligible. Two independent reviewers conducted study eligibility screening, data extraction, and quality appraisal using Cochranes’ Risk of Bias or Downs and Black tools. Each study was designated as a Level 1, 2, 3 or 4 study, dependent on study design and quality appraisal scores. The certainty of the evidence for each outcome was assessed using GRADE ratings (‘High’, ‘Moderate’, ‘Low’, or ‘Very low’). Results: Ninety-two studies met the eligibility criteria, comprising 999 adults with SCI representing all age, sex, time since injury, lesion level and lesion completeness strata. For muscle health (e.g., muscle mass, fiber type composition), significant improvements were found in 3 out of 4 Level 1–2 studies, and 27 out of 32 Level 3–4 studies (GRADE rating: ‘High’). Although lacking Level 1–2 studies, significant improvements were also found in nearly all of 35 Level 3–4 studies on power output and aerobic fitness (e.g., peak power and oxygen uptake during an FES cycling test) (GRADE ratings: ‘Low’). Conclusion: Current evidence indicates that FES cycling exercise improves lower-body muscle health of adults with SCI, and may increase power output and aerobic fitness. The evidence summarized and appraised in this review can inform the development of the first international, evidence-based clinical practice guidelines for the use of FES cycling exercise in clinical and community settings of adults with SCI. Registration review protocol: CRD42018108940 (PROSPERO)

1 March 2007 in Archives of Physical Medicine and Rehabilitation
Verified
Journal Article
Closed access
MPMichael M. Priebe
Michael M. Priebe
ACAnthony E. Chiodo
Anthony E. Chiodo
WSWilliam M. Scelza
William M. Scelza
SKSteven C. Kirshblum
Steven C. Kirshblum
LWLisa-Ann Wuermser
Lisa-Ann Wuermser
CHChester Ho
Chester Ho

1 January 2004 in The Journal of Spinal Cord Medicine
Verified
Journal Article
Closed access
GCGraham H. Creasey
Graham H. Creasey
CHChester Ho
Chester Ho
RTRonald J. Triolo
Ronald J. Triolo
DGDavid R. Gater
David R. Gater
ADAnthony F. DiMarco
Anthony F. DiMarco
MKMichael W. Keith
Michael W. Keith
Summary: During the last one-half century, electrical stimulation has become dinically significant for improving health and restoring useful function afterspinal cord injury. Short-term stimulation can be provided by electrodes on the skin or percutaneous fine wires, but implanted systems are preferable for long-term use. Electrical stimulation of intact lower motor neurons can exercise paralyzed musdes and reverse wasting; improve strength, endurance, and cardiovascular fitness; and may reduce the progression of osteoporosis. Other potential therapeutic uses being investigated indude reduction of spasticity, prevention of deep vein thrombosis, and improvement of tissue health. Pacing of intact phrenic nerves in high tetraplegia can produce effective respiration without mechanical ventilation, allowing improved speech, increased mobility, and increased sense of well-being. lmprovement of cough has also been demonstrated. Stimulation of intact sacral ne.rves can produce effective micturition and reduce urinary tract infection; it can also improve bowel function and erection. lt is usually combined with posterior sacral rhizotomy to improve continence and bladder capacity, and the combination has been shown to reduce costs of care. Electroejaculation can now produce semen in most men with spinal cord injury. Significant achievements have also been made in restoring limb function . Useful hand grasp can be provided in CS and C6 tetraplegia, reducing dependence on adapted equipment and assistants. Standing, assistance with transfers, and walking for short distances can be provided to selected persons with paraplegia, improving their access to objects, places, and opportunities that are inaccessible from a wheelchair. This review summarizes the current state of therapeutic and neuroprosthetic applications of electrical stimulation afterspinal cord injury and identifies some future directions of research and dinical and commercial development.