Wei-Ting Ho

Mr. Wei-Ting Ho


Research Focus & Metrics

Academic Career Length

14Years (2013-Present)

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

Representative Publications

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1 November 2013 in Clinical and Experimental Optometry
Verified
Journal Article
Closed access
WHWei-Ting Ho
Wei-Ting Ho
TCTing‐Hsuan Chiang
Ting‐Hsuan Chiang
SCShu‐Wen Chang
Shu‐Wen Chang
YCYu‐Hua Chen
Yu‐Hua Chen
FHFung-Rong Hu
Fung-Rong Hu
IWI‐Jong Wang
I‐Jong Wang

8 October 2014 in British Journal of Ophthalmology
Verified
Journal Article
Closed access
PDF file
TSTai Yuan Su
Tai Yuan Su
WHWei-Ting Ho
Wei-Ting Ho
CLChien Yi Lu
Chien Yi Lu
SCShu Wen Chang
Shu Wen Chang
HCHuihua Kenny Chiang
Huihua Kenny Chiang
Purpose To report the use of a thermographer for measuring ocular surface temperature, and to evaluate the correlation among the obtained temperature difference values (TDVs) and dry eye parameters (tear meniscus height (TMH); Schirmer's test results; fluorescent tear breakup time (FTBUT)). Methods Forty-three participants (age 40.2±14.7 years; range 21–67 years) from Far Eastern Memorial Hospital, Taiwan were recruited for the study. The surface temperature was measured at the centre of the ocular surface for 4 s after blinking. TDV was defined as the change in corneal surface temperature relative to that of the preceding eye opening, where TDV01, TDV02, TDV03, and TDV04 represent the values obtained 1, 2, 3, and 4 s after blinking, respectively. Anterior segment optical coherence tomography (AS-OCT) was employed to measure the lower TMH. Schirmer's test with topical anaesthetic was conducted to measure the basal tear secretion. The FTBUT was recorded using a digital camera. Results TDV measurement exhibited high reliability (intraclass correlation coefficient=0.91). TDV03 exhibited the highest significance and strongest positive correlation with the TMH (r=0.52, p=0.0003) and Schirmer's test value (r=0.39, p=0.008), whereas the TDV03–FTBUT correlation was non-significant. Age correlated negatively and significantly with the TDV (r= −0.35, p=0.021), TMH (r= −0.33, p=0.031), and Schirmer's test value (r= −0.31, p=0.044). TDV03 remained significantly correlated with the TMH and Schirmer's test value after adjustment for age. Conclusions The thermographer was effective in capturing temperature changes in the ocular surface. The temperature difference 3 s after blinking appears to be correlated with lower TMH and Schirmer test values.

1 July 2017 in Journal of the Formosan Medical Association
Verified
Journal Article
Open access
TSTai-Yuan Su
Tai-Yuan Su
WHWei-Ting Ho
Wei-Ting Ho
SCShu-Chiung Chiang
Shu-Chiung Chiang
CLChien-Yi Lu
Chien-Yi Lu
HCHuihua Kenny Chiang
Huihua Kenny Chiang
SCShu-Wen Chang
Shu-Wen Chang
To evaluate meibomian gland dysfunction (MGD) by infrared thermography. An observational study was conducted at the Department of Ophthalmology, Far Eastern Memorial Hospital, New Taipei City, Taiwan. Participants included 89 MGD patients (30 in Grade 1, 49 in Grade 2, and 10 in Grade 3) and 65 controls. The close-eye thermographic images of the eyelid were obtained noninvasively by infrared thermography. Temperatures at 8 regions of interest (ROIs) of the eyelid margin and a reference temperature at the center of the upper eyelid were measured. The temperature ratio was defined as the temperature of ROI divided by the reference temperature. Eyelid margin temperature measured by infrared thermography increased from temporal side (ROI 1) to the nasal side (ROI 8) of the eye in both MGD patients and control groups. The temperature ratios were significantly higher in MGD participants than in controls, especially at ROI 8. The eyelid margin temperature measured by infrared thermography was higher in MGD participants. Further development of this infrared thermography system may become a rapid and non-invasive tool for MGD screening.

1 August 2015 in The American Journal of Pathology
Verified
Journal Article
Closed access
WHWei-Ting Ho
Wei-Ting Ho
JCJung-Shen Chang
Jung-Shen Chang
CSChien-Chia Su
Chien-Chia Su
SCShu-Wen Chang
Shu-Wen Chang
FHFung-Rong Hu
Fung-Rong Hu
IWI-Jong Wang
I-Jong Wang

6 June 2022 in The FASEB Journal
Verified
Journal Article
Closed access
WHWei-Ting Ho
Wei-Ting Ho
JCJung‐Shen Chang
Jung‐Shen Chang
TCTsan-Chi Chen
Tsan-Chi Chen
JWJia‐Kang Wang
Jia‐Kang Wang
SCShu‐Wen Chang
Shu‐Wen Chang
IWI‐Jong Wang
I‐Jong Wang

1 July 2014 in Experimental Eye Research
Verified
Journal Article
Closed access
WHWei-Ting Ho
Wei-Ting Ho
TCTsan-Chi Chen
Tsan-Chi Chen
SCSan-Fang Chou
San-Fang Chou
SCShu-Wen Chang
Shu-Wen Chang