Dr. Yeampon Nakaramontri
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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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Journal Article
NLNussana Lehman
Nussana LehmanATAkarapong Tuljittraporn
Akarapong Tuljittraporn
Ladawan SongtipyaNUNattapon Uthaipan
Nattapon UthaipanKSKarnda Sengloyluan
Karnda Sengloyluan
Ekwipoo Kalkornsurapranee +2
Natural rubber from different Hevea braziliensis clones, namely RRIM600, RRIT251, PB235 and BPM24, exhibit unique properties. The influences of the various fresh natural rubber latex and cream concentrated latex on the non-rubber components related properties were studied. It was found that the fresh natural rubber latex exhibited differences in their particle size, which was attributed to the non-rubber and unique signature of clones which affect various properties. Meanwhile, the cream concentrated latex showed the protein contents, surface tension, and color of creamed latex to be lower than the fresh natural latex. However, TSC, DRC, viscosity, particle size and green strength of concentrated latex were found to be higher than the fresh natural latex. This is attributed to the incorporation of HEC molecules. Also, the rubber particle size distribution in the RRIM600 clone exhibited a large particle size and uniform distribution, showing good mechanical properties when compared to the other clones. Furthermore, the increased green strength in the RRIM600 clone can be attributed to the crystallization of the chain on straining and chain entanglement. These experimental results may provide benefits for manufacturing rubber products, which can be selected from a suitable clone.
Journal Article
KCKunakorn Chumnum
Kunakorn ChumnumEkwipoo KalkornsurapraneeJJJOBISH JOHNS
JOBISH JOHNSKSKarnda Sengloyluan
Karnda SengloyluanYeampon NakaramontriThe self-healing composites were prepared from the combination of bromobutyl rubber (BIIR) and natural rubber (NR) blends filled with carbon nanotubes (CNT) and carbon black (CB). To reach the optimized self-healing propagation, the BIIR was modified with ionic liquid (IL) and butylimidazole (IM), and blended with NR using the ratios of 70:30 and 80:20 BIIR:NR. Physical and chemical modifications were confirmed from the mixing torque and attenuated total reflection-fourier transform infrared spectroscopy (ATR-FTIR). It was found that the BIIR/NR-CNTCB with IL and IM effectively improved the cure properties with enhanced tensile properties relative to pure BIIR/NR blends. For the healed composites, BIIR/NR-CNTCB-IM exhibited superior mechanical and electrical properties due to the existing ionic linkages in rubber matrix. For the abrasion resistances, puncture stress and electrical recyclability were examined to know the possibility of inner liner applications and Taber abrasion with dynamic mechanical properties were elucidated for tire tread applications. Based on the obtained Tg and Tan δ values, the composites are proposed for tire applications in the future with a simplified preparation procedure.
19 April 2025 in Materials Chemistry and Physics
Journal Article
WKWasuthon Kitisavetjit
Wasuthon Kitisavetjit
NPNoppawan Paradee
Noppawan Paradee
KOKajornwut Ounjai
Kajornwut OunjaiEKEkwipoo Kalkornsurapranee
Ekwipoo Kalkornsurapranee
RPRawiporn Promsung
Rawiporn PromsungYeampon Nakaramontri +1
1 October 2021 in Composites Communications
Journal Article
Ladawan SongtipyaPSPonusa Songtipya
Ponusa SongtipyaTSTheerarat Sengsuk
Theerarat Sengsuk
Ekwipoo KalkornsurapraneeYeampon NakaramontriJJJOBISH JOHNS
JOBISH JOHNSJournal Article
AKAdisak Keereerak
Adisak KeereerakNSNusara Sukkhata
Nusara SukkhataNLNussana Lehman
Nussana LehmanYeampon NakaramontriKSKarnda Sengloyluan
Karnda SengloyluanEkwipoo Kalkornsurapranee +1
Novel composite based on rubber and modified bentonite clay (Clay) was investigated. The modified bentonite clay was developed by dispersing in ethanol solutions (Et-OH) using ultrasonic method. The effect of Et-OH on the dispersion of bentonite clay at various mixing temperatures in case of different type of rubber matrix, i.e., natural rubber (NR), epoxidized natural rubber (ENR25, ENR50) on dynamic mechanical rheology, Payne effect, XRD and mechanical properties of rubber composites were studied in detail. The bentonite clay dispersion in Et-OH at a mixing temperature of 80 °C improves the intercalation and exfoliation in rubber chains. Bentonite clay is highly intercalated in ENR 50-Clay composite, which can be confirmed from its superior mechanical properties. The results indicated that sonication of bentonite clay in Et-OH improves the interlayer spacing of bentonite clay by partial intercalation of rubber matrix.
30 August 2022 in Industrial Crops and Products
Journal Article
Yeampon NakaramontriYBYeiangchart Boonluksiri
Yeiangchart Boonluksiri
PSPhakhwan Sornsri
Phakhwan Sornsri
SDSirijanya Duangkhaw
Sirijanya Duangkhaw
PUPhuwadon Udompongpaiboon
Phuwadon Udompongpaiboon
LKLompong Klinnawee
Lompong Klinnawee +1
About Me
Assistant Professor Dr. Yeampon Nakaramontri is a lecturer in the Department of Chemistry, Faculty of Science, King Mongkut’s University of Technology Thonburi (KMUTT), Bangkok, Thailand . He earned his B.Sc. in Rubber Technology and Ph.D. in Polymer Technology from Prince of Songkla University, Thailand, and completed his postdoctoral research in 2018 through international collaborations with Prince of Songkla University, EMPA (Switzerland), and the University of Applied Sciences Osnabrück (Germany) . He subsequently began his academic career at KMUTT, where he has developed a strong and impactful research profile that bridges fundamental polymer science with industrial applications. He has authored over 75 peer-reviewed international publications and holds 20 petty patents, with his research primarily dedicated to advancing the versatility of natural rubber (NR) across multidisciplinary domains, including medical, engineering, agricultural, and sustainable material applications. His research encompasses a wide range of cutting-edge topics, such as conductive and self-healing rubber composites, antibacterial and disinfectant NR materials, thermoplastic–NR systems for 3D printing, rubber waste valorization, piezoresistive and piezoelectric rubber systems, controlled-release fertilizers, and biodegradable materials. In addition, he has led and contributed to more than 50 industry-collaborative and government-funded research projects, many of which have be