An additively manufactured novel polymer composite heat exchanger for dry cooling applications

Arie, Martinus; Hymas, David; Singer, Farah; Shooshtari, Amir; Ohadi, Michael M.

doi:10.1016/j.ijheatmasstransfer.2019.118889

Cited by 39 publications

(13 citation statements)

References 24 publications

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“…Similar investigations are also done in this subject (Menni et al, 2019b(Menni et al, , 2019c(Menni et al, , 2019dMenni et al, 2020a;Sivamani et al, 2020;Mei et al, 2020;Benzenine et al, 2019;Sibilli et al, 2020;Raizah et al, 2020). Arie et al (2020) conducted an investigation on a novel manufactured heat exchanger using polymer composite. Their study in particular, demonstrated the effect of using new HFF 31,4 design to provide better thermal performance.…”

Section: Introductionmentioning

confidence: 79%

“…Thus, investigation on the STHEs is needed for performance enhancement. Turbulators, obstacles, ribs, corrugations, baffles and tube geometry, and also various arrangement of these components have a noticeable effect on the STHEs thermal-hydraulic performance (Arie et al, 2020;Bezaatpour and Rostamzadeh, 2020;Nguyen et al, 2019;Atlas et al, 2020;Bhavya Swathi et al, 2019;Sindhu and Gireesha, 2020). Youcef et al (2019) conducted a three-dimensional numerical investigation presenting a new type of wing baffle.…”

Section: Introductionmentioning

confidence: 99%

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Shell and tube heat exchanger thermal-hydraulic analysis equipped with baffles and corrugated tubes filled with non-Newtonian two-phase nanofluid

Arani

Moradi

2020

HFF

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Purpose Using turbulators, obstacles, ribs, corrugations, baffles and different tube geometry, and also various arrangements of these components have a noticeable effect on the shell and tube heat exchangers (STHEs) thermal-hydraulic performance. This study aims to investigate non-Newtonian fluid flow characteristics and heat transfer features of water and carboxyl methyl cellulose (H2O 99.5%:0.5% CMC)-based Al2O3 nanofluid inside the STHE equipped with corrugated tubes and baffles using two-phase mixture model. Design/methodology/approach Five different corrugated tubes and two baffle shapes are studied numerically using finite volume method based on SIMPLEC algorithm using ANSYS-Fluent software. Findings Based on the obtained results, it is shown that for low-mass flow rates, the disk baffle (DB) has more heat transfer coefficient than that of segmental baffle (SB) configuration, while for mass flow rate more than 1 kg/s, using the SB leads to more heat transfer coefficient than that of DB configuration. Using the DB leads to higher thermal-hydraulic performance evaluation criteria (THPEC) than that of SB configuration in heat exchanger. The THPEC values are between 1.32 and 1.45. Originality/value Using inner, outer or inner/outer corrugations (outer circular rib and inner circular rib [OCR+ICR]) tubes for all mass flow rates can increase the THPEC significantly. Based on the present study, STHE with DB and OCR+ICR tubes configuration filled with water/CMC/Al2O3 with f = 1.5% and dnp = 100 nm is the optimum configuration. The value of THPEC in referred case was 1.73, while for outer corrugations and inner smooth, this value is between 1.34 and 1.57, and for outer smooth and inner corrugations, this value is between 1.33 and 1.52.

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Section: Introductionmentioning

confidence: 79%

Section: Introductionmentioning

confidence: 99%

Shell and tube heat exchanger thermal-hydraulic analysis equipped with baffles and corrugated tubes filled with non-Newtonian two-phase nanofluid

Arani

Moradi

2020

HFF

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“…The current paper meets the above challenges by utilizing a novel, entirely additively manufactured, low-cost, and lightweight metal-polymer composite HX [20][21][22], with effective thermal conductivity in the range of 130 W/m-K [21]. High thermal conductivity metal wires contribute towards effective thermal conductivity while polymer media contribute to a lightweight and low-cost unit.…”

Section: Introductionmentioning

confidence: 99%

Numerical and Experimental Study of a Novel Additively Manufactured Metal-Polymer Composite Heat-Exchanger for Liquid Cooling Electronics

Mandel¹,

Shooshtari²,

Ohadi³

2022

Energies

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In order to meet increasing power-dissipation requirements of the electronics industry, compact, low-cost, and lightweight heat exchangers (HXs) are desired. With proper design, materials, and manufacture, polymer composite heat exchangers could meet these requirements. This paper presents a novel crossflow air-to-water, low-cost, and lightweight metal-polymer composite HX. This HX, which is entirely additively manufactured, utilizes a novel cross-media approach that provides direct heat exchange between air and liquid sides by using connecting fins. A robust numerical model was developed, which includes the dimensional effects of additive manufacturing. The study consists of a simplified 3D CFD model based on ellipsoidal-shaped staggered tube banks for the laminar range. It then uses an analytical approach to compute entire HX performance. The model is validated experimentally within 8% for thermal performance, 12% for air-side impedance, and 18% for water-side impedance. Finally, HX is compared with a conventional CPU radiator and performs within 10% of the conventional unit for reasonable flow rates and pressure-drop ranges. Moreover, HX also provides added design and cost advantages over the conventional unit, which makes the HX a potential candidate for electronic cooling applications.

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“…In a previous study, Arie et al used HDPE (high-density polyethylene) and PLA (polylactic acid) for additively manufacturing a polymer heat-exchanging device with excellent heat transfer performance [ 6 ]; however, the SLS (selective laser sintering) technology was also successfully applied to produce a polymer heat exchanger with good thermal performance [ 7 ]. In a recent study, the use of a metal (aluminum) and polymer composite (ABS, acrylonitrile butadiene styrene) was highlighted [ 8 ], while another research group used resin-based composites for thermal investigation [ 9 ]. Furthermore, to increase stiffness and hardness, dos Santos et al developed a composite of photocurable epoxy-acrylate resin and multiwalled carbon nanotubes [ 10 ].…”

Section: Introductionmentioning

confidence: 99%

Stereolithography 3D Printing of a Heat Exchanger for Advanced Temperature Control in Wire Myography

et al. 2022

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We report the additive manufacturing of a heat-exchange device that can be used as a cooling accessory in a wire myograph. Wire myography is used for measuring vasomotor responses in small resistance arteries; however, the commercially available devices are not capable of active cooling. Here, we critically evaluated a transparent resin material, in terms of mechanical, structural, and thermal behavior. Tensile strength tests (67.66 ± 1.31 MPa), Charpy impact strength test (20.70 ± 2.30 kJ/m2), and Shore D hardness measurements (83.0 ± 0.47) underlined the mechanical stability of the material, supported by digital microscopy, which revealed a glass-like structure. Differential scanning calorimetry with thermogravimetry analysis and thermal conductivity measurements showed heat stability until ~250 °C and effective heat insulation. The 3D-printed heat exchanger was tested in thermophysiology experiments measuring the vasomotor responses of rat tail arteries at different temperatures (13, 16, and 36 °C). The heat-exchange device was successfully used as an accessory of the wire myograph system to cool down the experimental chambers and steadily maintain the targeted temperatures. We observed temperature-dependent differences in the vasoconstriction induced by phenylephrine and KCl. In conclusion, the transparent resin material can be used in additive manufacturing of heat-exchange devices for biomedical research, such as wire myography. Our animal experiments underline the importance of temperature-dependent physiological mechanisms, which should be further studied to understand the background of the thermal changes and their consequences.

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An additively manufactured novel polymer composite heat exchanger for dry cooling applications

Cited by 39 publications

References 24 publications

Shell and tube heat exchanger thermal-hydraulic analysis equipped with baffles and corrugated tubes filled with non-Newtonian two-phase nanofluid

Shell and tube heat exchanger thermal-hydraulic analysis equipped with baffles and corrugated tubes filled with non-Newtonian two-phase nanofluid

Numerical and Experimental Study of a Novel Additively Manufactured Metal-Polymer Composite Heat-Exchanger for Liquid Cooling Electronics

Stereolithography 3D Printing of a Heat Exchanger for Advanced Temperature Control in Wire Myography

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