Arjay Arpia

Mr. Arjay Arpia

National Cheng Kung University
orcid

Research Focus & Metrics

Academic Career Length

6Years (2021-Present)

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

Representative Publications

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1 January 2021 in Chemical Engineering Journal
Verified
Journal Article
Closed access
Arjay ArpiaArjay Arpia
Arjay Arpia
WCWei-Hsin Chen
Wei-Hsin Chen
SLSu Shiung Lam
Su Shiung Lam
PRPatrick Rousset
Patrick Rousset
MLMark Daniel G. de Luna
Mark Daniel G. de Luna

1 September 2021 in Journal of Hazardous Materials
Verified
Journal Article
Open access
Arjay ArpiaArjay Arpia
Arjay Arpia
Wei-Hsin ChenWei-Hsin Chen
Wei-Hsin Chen
Aristotle UbandoAristotle Ubando
Aristotle Ubando
Salman Raza NaqviSalman Raza Naqvi
Salman Raza Naqvi
ACAlvin B. Culaba
Alvin B. Culaba
As plastics have been omnipresent in society ever since their introduction in 1907, global plastic production has ballooned in the 20th century or the Plasticene Era (Plastic Age). After their useful life span, they deliberately or accidentally, are disposed of in the environment. Influenced by different factors, plastics undergo fragmentation into microplastics (MPs) and present hazardous risks in all life forms including humans. Obliterating MPs from the environment has been a global challenge for the attainment of sustainable development goals (SDGs). This review aims to present MP degradation routes with a great focus on the thermodegradation and biodegradation routes as sustainable routes of MP degradation. These routes can achieve the reduction and obliteration of MPs in the environment, thus reducing their hazardous effects. Moreover, the thermodegradation of MPs can produce fuels that help solve the dilemma of energy security. Overall, continued research and development are still needed, however, these novel approaches and the increased awareness of the microplastics' hazards give us hope that we can achieve sustainable development in the near future.

1 January 2022 in Chemosphere
Verified
Journal Article
Closed access
Arjay ArpiaArjay Arpia
Arjay Arpia
TNThanh-Binh Nguyen
Thanh-Binh Nguyen
Wei-Hsin ChenWei-Hsin Chen
Wei-Hsin Chen
Cheng-Di DongCheng-Di Dong
Cheng-Di Dong
YOYong Sik Ok
Yong Sik Ok

1 March 2022 in Chemosphere
Verified
Journal Article
Closed access
Wei-Hsin ChenWei-Hsin Chen
Wei-Hsin Chen
Arjay ArpiaArjay Arpia
Arjay Arpia
JCJo-Shu Chang
Jo-Shu Chang
EKEilhann E. Kwon
Eilhann E. Kwon
YPYoung-Kwon Park
Young-Kwon Park
ACAlvin B. Culaba
Alvin B. Culaba

14 July 2021 in Energies
Verified
Journal Article
Open access
PDF file
CCCheng-Yen Chang
Cheng-Yen Chang
Wei-Hsin ChenWei-Hsin Chen
Wei-Hsin Chen
Bernard SawBernard Saw
Bernard Saw
Arjay ArpiaArjay Arpia
Arjay Arpia
MUManuel Carrera Uribe
Manuel Carrera Uribe
The printed circuit heat exchanger (PCHE) is a promising waste heat recovery technology to improve energy efficiency. The current investigation presents the experimental results on the thermal performance of a novel PCHE for low-temperature waste heat recovery. The novel PCHE was manufactured using precision machining and diffusion bonding. The thermal performances, such as effectiveness and NTU values at different temperatures, are evaluated, and water is used as a working fluid. The experimental results indicate that the PCHE’s effectiveness is around 0.979 for an inlet flow temperature of 95 °C. The predominant factors affecting the thermal performance of the PCHE are the inlet flow temperature and the flow rate of the working fluid. In addition, a comparison of the experimental results and the literature shows that the effectiveness of the PCHE is better than the others, which have fewer layers of PCHE fins.