Po-Hsien Li

Prof. Po-Hsien Li

Department of Medicinal Botanical and Health Applications, Da-Yeh University, Changhua 51591, Taiwan
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

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1 January 2018 in Journal of Food and Drug Analysis
Verified
Journal Article
Open access
WLWen-Chien Lu
Wen-Chien Lu
DHDa-Wei Huang
Da-Wei Huang
CWChiun-C.R. Wang
Chiun-C.R. Wang
CYChing-Hua Yeh
Ching-Hua Yeh
JTJen-Chieh Tsai
Jen-Chieh Tsai
Po-Hsien LiPo-Hsien Li
Po-Hsien Li
Citral is a typical essential oil used in the food, cosmetic, and drug industries and has shown antimicrobial activity against microorganisms. Citral is unstable and hydrophobic under normal storage conditions, so it can easily lose its bactericide activity. Nanoemulsion technology is an excellent way to hydrophilize, microencapsulate, and protect this compound. In our studies, we used a mixed surfactant to form citral-in-water nanoemulsions, and attempted to optimize the formula for preparing nanoemulsions. Citral-in-water nanoemulsions formed at So 0.4 to 0.6 and ultrasonic power of 18 W for 120 seconds resulted in a droplet size of < 100 nm for nanoemulsions. The observed antimicrobial activities were significantly affected by the formulation of the nanoemulsions. The observed relationship between the formulation and activity can lead to the rational design of nanoemulsion-based delivery systems for essential oils, based on the desired function of antimicrobials in the food, cosmetics, and agrochemical industries.

1 February 2016 in Food Hydrocolloids
Verified
Journal Article
Closed access
Po-Hsien LiPo-Hsien Li
Po-Hsien Li
WLWen-Chien Lu
Wen-Chien Lu

1 March 2014 in Ultrasonics Sonochemistry
Verified
Journal Article
Closed access
WLWen-Chien Lu
Wen-Chien Lu
BCBeen-Huang Chiang
Been-Huang Chiang
DHDa-Wei Huang
Da-Wei Huang
Po-Hsien LiPo-Hsien Li
Po-Hsien Li

9 January 2023 in Scientific Reports
Verified
Journal Article
Open access
PDF file
MCMing-Yu Chou
Ming-Yu Chou
TLTan-Ang Lee
Tan-Ang Lee
YLYing-Shen Lin
Ying-Shen Lin
SHShan-Yin Hsu
Shan-Yin Hsu
MWMing-Fu Wang
Ming-Fu Wang
HJHO JOUHSUAN
HO JOUHSUAN
Eggshells offer many advantages as adsorbents, such as affordability without special preparations other than pulverization and calcination. However, the manufacturing industry generally has a severe problem with high concentrations of heavy metals in wastewater. The purpose of this study was to use eggshell byproducts and calcined eggshell treatment for the adsorption of copper in an aqueous solution. The reaction time, metal concentration, adsorbent dose, temperature, and pH were evaluated using primary factors followed by the response surface method (RSM) to investigate the optimum conditions for eggshell byproducts and calcined eggshell adsorption treatment. The results of the one-factor-at-a-time experiment showed that the optimal adsorption rate was obtained from treatment at 24 h, 25 mg/L, 10 mg, and 25 °C. In addition, the effect of pH on the adsorption rates of eggshells and eggshells with membrane were detected at pH values of 5 and 5.9 and found to be 95.2, 90.5, and 73.3%. The reaction surface experiment showed that the best adsorption rate reached 99.3% after calcination at 900 °C for 2 h and a 20 min reaction. The results showed that eggshells, eggshell membranes, eggshells with membrane, and calcined eggshells could be applied to remove copper ions from industrial wastewater. The adsorption capacity of the calcined eggshell is better than that of the non-calcined eggshell and has good neutrality in acidic industrial wastewater. Therefore, it is convenient and practical for practical production and application. Likewise, this study conveys promising findings in the context of improving wastewater treatment based on a circular economy approach to waste reuse in the food industry and represents a valuable direction for future research.

12 March 2022 in Foods
Verified
Journal Article
Open access
PDF file
Po-Hsien LiPo-Hsien Li
Po-Hsien Li
CWChien-Wen Wang
Chien-Wen Wang
WLWen-Chien Lu
Wen-Chien Lu
YCYung Jia Chan
Yung Jia Chan
CWChiun-Chuan Roger Wang
Chiun-Chuan Roger Wang
The aim of this study was to evaluate the characteristics and eating quality of salted noodles that are incorporated with different formulations of flour. Up to 20% of wheat flour was substituted by composite flours of highly resistant starches, including heat moisture treatment corn starch (HMT-CS), high-amylose corn starch (Hylon VII), and green banana flour (GBF). The physical properties of dough, in conjunction with the eating quality and estimated glycemic index (EGI) of cooked salted noodles, were investigated in this study. The results concluded that the incorporation of GBF, HMT, and Hylon VII not only affected the water absorption and mixing tolerance of the dough, but also the maximum resistance to extension and extensibility in terms of the extensographic properties. Meanwhile, GBF, HMT, and Hylon VII incorporation significantly increased the resistant starch content and decreased the fat content of the noodle samples. The textural profile analyses of cooked salted noodles indicated that hardness, gumminess, chewiness, and shearing force increased; nevertheless, springiness declined with the increase in the proportion of flours from 10 to 20%. The sensory evaluation detected that wheat flour composited with 10% GBF and HMT flours could produce acceptable quality noodles as compared with normal typical control noodles. In the meantime, salted noodles incorporated with GBF, HMT-CS, and Hylon VII flour decreased the estimated glycemic index (EGI) dramatically. The result of this study concluded that incorporation of various sources of resistant starch flour could develop a low-GI noodle with good acceptability that may contribute to gastrointestinal health.

22 August 2024 in Food Chemistry
Verified
Journal Article
Closed access
WLWen-Chien Lu
Wen-Chien Lu
YCYung-Jia Chan
Yung-Jia Chan
ZLZong-En Li
Zong-En Li
Po-Hsien LiPo-Hsien Li
Po-Hsien Li