Kuo-Sheng Liu

Dr. Kuo-Sheng Liu


Research Focus & Metrics

Academic Career Length

17Years (2010-Present)

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

Representative Publications

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17 August 2020 in Sensors
Verified
Journal Article
Open access
PDF file
DSDe-Fen Shih
De-Fen Shih
JWJyh-Liang Wang
Jyh-Liang Wang
SCSou-Chih Chao
Sou-Chih Chao
YCYin-Fa Chen
Yin-Fa Chen
KLKuo-Sheng Liu
Kuo-Sheng Liu
CYChia-Ming Yang
Chia-Ming Yang
Pressure injury is the most important issue facing paralysis patients and the elderly, especially in long-term care or nursing. A new interfacial pressure sensing system combined with a flexible textile-based pressure sensor array and a real-time readout system improved by the Kalman filter is proposed to monitor interfacial pressure progress in the cardiac operation. With the design of the Kalman filter and parameter optimization, noise immunity can be improved by approximately 72%. Additionally, cardiac operation patients were selected to test this developed system for the direct correlation between pressure injury and interfacial pressure for the first time. The pressure progress of the operation time was recorded and presented with the visible data by time- and 2-dimension-dependent characteristics. In the data for 47 cardiac operation patients, an extreme body mass index (BMI) and significantly increased pressure after 2 h are the top 2 factors associated with the occurrence of pressure injury. This methodology can be used to prevent high interfacial pressure in high-risk patients before and during operation. It can be suggested that this system, integrated with air mattresses, can improve the quality of care and reduce the burden of the workforce and medical cost, especially for pressure injury.

1 August 2018 in Journal of Vascular Surgery
Verified
Journal Article
Closed access
KLKuo-Sheng Liu
Kuo-Sheng Liu
CLCheng-Hung Lee
Cheng-Hung Lee
DLDemei Lee
Demei Lee
MLMichelle Liu
Michelle Liu
FTFeng-Chun Tsai
Feng-Chun Tsai
Yuan Yun TsengYuan Yun Tseng
Yuan Yun Tseng

1 June 2022 in The Journal of Thoracic and Cardiovascular Surgery
Verified
Journal Article
Closed access
IAIván Alejandro De León Ayala
Iván Alejandro De León Ayala
YCYu-Ting Cheng
Yu-Ting Cheng
SCShao-Wei Chen
Shao-Wei Chen
SCSung-Yu Chu
Sung-Yu Chu
YNYu-Yun Nan
Yu-Yun Nan
KLKuo-Sheng Liu
Kuo-Sheng Liu

22 January 2020 in Pharmaceutics
Verified
Journal Article
Open access
PDF file
Yuan Yun TsengYuan Yun Tseng
Yuan Yun Tseng
CKChing-Wei Kao
Ching-Wei Kao
KLKuo-Sheng Liu
Kuo-Sheng Liu
YTYa-Ling Tang
Ya-Ling Tang
YLYen-Wei Liu
Yen-Wei Liu
Shih-Jung LiuShih-Jung Liu
Shih-Jung Liu
Brain abscesses are emergent and life-threating despite advances in modern neurosurgical techniques and antibiotics. The present study explores the efficacy of vancomycin embedded to 50:50 poly(lactic-co-glycolide acid) (PLGA) microparticles in the treatment of brain abscess. The vancomycin embedded microparticles (VMPs) were stereotactically introduced into the cerebral parenchyma in Staphylococcus aureus bacteria- induced brain abscess-bearing rats. Experimental rats were divided into three groups: group A (n = 13; no treatment), group B (n = 14; daily vancomycin injection (5 mg intraperitoneally), and group C (n = 12; stereotactic introduction of VMPs into the abscess cavity). Group C exhibited no inflammatory response and significantly increased survival and reduced mean abscess volumes (p <0.001) at the eighth week, compared with other groups. Vancomycin delivery via a biodegradable PLGA vehicle can easily attain Area Under the Curve (AUC)/minimum inhibitory concentration (MIC) ratios of ≥400, and strengthens the therapeutic efficacy of antibiotics without provoking any potential toxicity. Biodegradable VMPs are a safe and sustainable drug delivery vehicle for the treatment of brain abscess.

Verified
Journal Article
Open access
PDF file
KLKuo-Sheng Liu
Kuo-Sheng Liu
WCWei-Hsun Chen
Wei-Hsun Chen
Chen-Hung LeeChen-Hung Lee
Chen-Hung Lee
YSYong-Fong Su
Yong-Fong Su
YLYen-Wei Liu
Yen-Wei Liu
Shih-Jung LiuShih-Jung Liu
Shih-Jung Liu
A novel hybrid biodegradable Nuss bar model was developed to surgically correct the pectus excavatum and reduce the associated pain during treatment. The scheme consisted of a three-dimensional (3D) printed biodegradable polylactide (PLA) Nuss bar as the surgical implant and electrospun polylactide–polyglycolide (PLGA) nanofibers loaded with lidocaine and ketorolac as the analgesic agents. The degradation rate and mechanical properties of the PLA Nuss bars were characterized after submersion in a buffered mixture for different time periods. In addition, the in vivo biocompatibility of the integrated PLA Nuss bars/analgesic-loaded PLGA nanofibers was assessed using a rabbit chest wall model. The outcomes of this work suggest that integration of PLA Nuss bar and PLGA/analgesic nanofibers could successfully enhance the results of pectus excavatum treatment in the animal model. The histological analysis also demonstrated good biocompatibility of the PLA Nuss bars with animal tissues. Eventually, the 3D printed biodegradable Nuss bars may have a potential role in pectus excavatum treatment in humans.

1 April 2010 in European Journal of Cardio-Thoracic Surgery
Verified
Journal Article
Open access
PDF file
KLKuo-Sheng Liu
Kuo-Sheng Liu
JCJaw-Ji Chu
Jaw-Ji Chu
CYChi-Hsiao Yeh
Chi-Hsiao Yeh
YCYu Chen
Yu Chen
A 62-year-old man presented with progressive hoarseness for 1 year. Blood pressure was within the normal range and was similar in the four limbs. A computed tomography (CT) scan (Fig. 1 ) showed complex aortic arch abnormalities. He underwent an uncomplicated total arch replacement surgery. Postoperative CT scan (Fig. 2 ) was presented.