Haw-Ming Huang

Prof. Dr. Haw-Ming Huang

Taipei Medical University
orcid

Research Focus & Metrics

Academic Career Length

34Years (1993-Present)

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

Representative Publications

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25 August 2007 in Annals of Biomedical Engineering
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Journal Article
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KCKang-Hsuan Chiu
Kang-Hsuan Chiu
KOKeng-Liang Ou
Keng-Liang Ou
SLSheng-Yang Lee
Sheng-Yang Lee
CLChe-Tong Lin
Che-Tong Lin
WCWei-Jen Chang
Wei-Jen Chang
Haw-Ming HuangHaw-Ming Huang
Haw-Ming Huang

1 June 1993
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Journal Article
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CLC T Lin
C T Lin
WCW Y Chan
W Y Chan
WCW Chen
W Chen
Haw-Ming HuangHaw-Ming Huang
Haw-Ming Huang
HWH C Wu
H C Wu
CWC C Wang
C C Wang

28 March 2017 in Journal of Tissue Engineering and Regenerative Medicine
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Journal Article
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WLWei-Zhen Lew
Wei-Zhen Lew
YHYu-Chih Huang
Yu-Chih Huang
KHKuen-Yu Huang
Kuen-Yu Huang
CLChe-Tong Lin
Che-Tong Lin
MTMing-Tzu Tsai
Ming-Tzu Tsai
Haw-Ming HuangHaw-Ming Huang
Haw-Ming Huang

Verified
Journal Article
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TCTsai-Mu Cheng
Tsai-Mu Cheng
HCHsiu-Yi Chu
Hsiu-Yi Chu
Haw-Ming HuangHaw-Ming Huang
Haw-Ming Huang
ZLZi-Lin Li
Zi-Lin Li
CCChiang-Ying Chen
Chiang-Ying Chen
KWKuan Wang
Kuan Wang
Nanotechnology is one of the scientific advances in technology. Nanoparticles (NPs) are small materials ranging from 1 to 100 nm. When the shape of the supplied nanoparticles changes, the physiological response of the cells can be very different. Several characteristics of NPs such as the composition, surface chemistry, surface charge, and shape are also important parameters affecting the toxicity of nanomaterials. This review covered specific topics that address the effects of NPs on nanomedicine. Furthermore, mechanisms of different types of nanomaterial-induced cytotoxicities were described. The distributions of different NPs in organs and their adverse effects were also emphasized. This review provides insight into the scientific community interested in nano(bio)technology, nanomedicine, and nanotoxicology. The content may also be of interest to a broad range of scientists.

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CCChang-Chih Chen
Chang-Chih Chen
CNChia-Jen Nien
Chia-Jen Nien
LCLih-Geeng Chen
Lih-Geeng Chen
KHKuen-Yu Huang
Kuen-Yu Huang
WCWei Jen Chang
Wei Jen Chang
Haw-Ming HuangHaw-Ming Huang
Haw-Ming Huang
Sapindus mukorossi seed oil is commonly used as a source for biodiesel fuel. Its phytochemical composition is similar to the extracted oil from Sapindus trifoliatus seeds, which exhibit beneficial effects for skin wound healing. Since S. mukorossi seed shows no cyanogenic property, it could be a potential candidate for the treatment of skin wounds. Thus, we evaluated the effectiveness of S. mukorossi seed oil in the treatment of skin wounds. We characterized and quantified the fatty acids and unsaponifiable fractions (including β-sitosterol and δ-tocopherol) contained in S. mukorossi seed-extracted oil by GC-MS and HPLC, respectively. Cell proliferation and migratory ability were evaluated by cell viability and scratch experiments using CCD-966SK cells treated with S. mukorossi oil. The anti-inflammatory effects of the oil were evaluated by measuring the nitric oxide (NO) production in lipopolysaccharide-treated RAW 264.7 cells. Antimicrobial activity tests were performed with Propionibacterium acnes, Staphylococcus aureus, and Candida albicans using a modified Japanese Industrial Standard procedure. Uniform artificial wounds were created on the dorsum of rats. The wounds were treated with a carboxymethyl cellulose (CMC)/hyaluronic acid (HA)/sodium alginate (SA) hydrogel for releasing the S. mukorossi seed oil. The wound sizes were measured photographically for 12 days and were compared to wounds covered with analogous membranes containing a saline solution. Our results showed that the S. mukorossi seed oil used in this study contains abundant monounsaturated fatty acids, β-sitosterol, and δ-tocopherol. In the in vitro tests, S. mukorossi seed oil prompted cell proliferation and migration capability. Additionally, the oil had significant anti-inflammatory and anti-microbial activities. In the in vivo animal experiments, S. mukorossi seed oil-treated wounds revealed acceleration of sequential skin wound healing events after two days of healing. The size of oil-treated wound decreased to half the size of the untreated control after eight days of healing. The results suggest that S. mukorossi seed oil could be a potential source for promoting skin wound healing.

19 July 2019 in Polymers
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YHYu-Chih Huang
Yu-Chih Huang
KHKuen-Yu Huang
Kuen-Yu Huang
WLWei-Zhen Lew
Wei-Zhen Lew
KFKang-Hsin Fan
Kang-Hsin Fan
WCWei Jen Chang
Wei Jen Chang
Haw-Ming HuangHaw-Ming Huang
Haw-Ming Huang
In this study, we prepared low-molecular-weight hyaluronic acid (LMWHA) powder by γ-irradiation. The chemical and physical properties of γ-irradiated LMWHA and the in vitro cellular growth experiments with γ-irradiated LMWHA were analyzed. Then, hyaluronic acid exposed to 20 kGy of γ-irradiation was used to fabricate a carboxymethyl cellulose (CMC)/LMWHA fabric for wound dressing. Our results showed that γ-irradiated LMWHA demonstrated a significant alteration in carbon–oxygen double bonding and can be detected using nuclear magnetic resonance and ultraviolet (UV)-visible (Vis) spectra. The γ-irradiated LMWHA exhibited strain rate-dependent Newton/non-Newton fluid biphasic viscosity. The viability of L929 skin fibroblasts improved upon co-culture with γ-irradiated LMWHA. In the in vivo animal experiments, skin wounds covered with dressings prepared by γ-irradiation revealed acceleration of wound healing after two days of healing. The results suggest that γ-irradiated LMWHA could be a potential source for the promotion of skin wound healing.