Computational characterization of millimetre-wave heat exchangers with an AlN:Mo susceptor of multiple cylindrical elements

References

• Benford JN. 2008. Space applications of high-power microwaves. IEEE Trans Plasma Sci. 36(3):569–581.
   Web of Science ®Google Scholar
• Boll DW, Donovan J, Graham RL, Lubachevsky BD. 2000. Improving dense packings of equal disks in a square. Electron J Combin. 7(1):1–9.
   Google Scholar
• Brown WC, Eves EE. 1992. Beamed microwave power transmission and its application to space. IEEE Trans Microwave Theory Techn. 40(6):1239–1250.
   Web of Science ®Google Scholar
• Celuch M, Kopyt P. 2009. Modeling of microwave heating of foods. In Lorence MW and Pesheck PS (Eds), Development of packaging and products for use in microwave ovens, Cambridge (UK): Woodhead Publishing, p. 305–348.
   Google Scholar
• COMSOL Multiphysics. 1998–2020. COMSOL AB, www.comsol.com.
   Google Scholar
• Coopersmith JC, Davis E. 2016. A strategic roadmap for commercializing low-cost beamed energy propulsion launch systems, Proc. AIAA SPACE, Art. no. 5555.
   Google Scholar
• Gaone JM, Tilley BS, Yakovlev VV. 2019. Electromagnetic heating control via high-frequency resonance of a triple-layer laminate. J Eng Math. 114(1):65–86.
   Google Scholar
• Goldberg M. 1970. The packing of equal circles in a square. Math Magazine. 43(1):24–30.
   Google Scholar
• Hilario MS, Hoff BW, Jawdat BI, Dynys FW, Wang JJ. 2017. High temperature millimetre-wave permittivity measurement setup for beamed energy heat exchangers. 55th AIAA Aerospace Sciences Meeting, 2017,
   Google Scholar
• Hilario MS, Hoff BW, Jawdat BI, Lanagan MT, Cohick AW, Dynys FW, Mackey JA, Gaone JM. 2019. W-band complex permittivity measurements at high temperature using free-space methods. IEEE Trans Compon Packag Manufact Technol. 9(6):1011–1019.
   Web of Science ®Google Scholar
• Hoff BW, Hilario MS, Jawdat BI, Baros AE, Dynys FW, Mackey JA, Yakovlev VV, Andraka CE, Armijo KM, Savrun E, Rittersdorf IM. 2018. Millimeter wave interactions with high temperature materials and their applications to power beaming, Proc. 52nd IMPI’s Microwave Power Symposium, Long Beach (CA), 2018, p. 82–83.
   Google Scholar
• Hoff BW, Dynys FW, Hayden SC, Grudt RO, Hilario MS, Baros AE, Ostraat ML. 2019a. Characterization of AlN-based ceramic composites for use as millimetre wave susceptor materials at high temperature: high temperature thermal properties of AlN:Mo with 0.25% to 4.0% Mo by volume. MRS Adv. 4(27):1531–1512.
   Web of Science ®Google Scholar
• Hoff BW, Hayden SC, Hilario MS, Grudt RO, Dynys FW, Baros AE, Rittersdorf IM, Ostraat MW. 2019b. Characterization of AlN-based ceramic composites for use as millimetre-wave susceptor materials at high temperature: dielectric properties of AlN:Mo with 0.25 v% to 4.0 v% Mo at temperatures from 25-550 °C. J Mater Res. 34(15):2573–2581.
   Web of Science ®Google Scholar
• Jamar A, Majid Z, Azmi W, Norhafana M, Razak A. 2016. A review of water heating system for solar energy applications. Int. Commun. Heat Mass Transfer. 76:178–187.
   Web of Science ®Google Scholar
• Jamnejad V, Silva A. 2008. Microwave power beaming strategies for fractionated spacecraft systems. Proc. 2008 IEEE Aerospace Conference, Big Sky, MT, March 2008, 14 pp.
   Google Scholar
• Jawdat BI, Hoff BW, Hilario MS, Baros AE, Pelletier P, Sabo T, Dynys FW. 2017. Composite ceramics for power beaming. Proc. 2017 IEEE Wireless Power Transfer Conf., 978-1-5090-4595-3/17.
   Google Scholar
• Koert P, Cha JT. 1992. Millimeter wave technology for space power beaming. IEEE Trans Microwave Theory Techn. 40(6):1251–1258.
   Web of Science ®Google Scholar
• Kopyt P, Celuch M. 2007. Coupled electromagnetic-thermodynamic simulations of microwave heating problems using the FDTD algorithm. J Microw Power Electromagn Energy. 41(4):18–29.
   Web of Science ®Google Scholar
• Koutchma T, Yakovlev VV. 2010. Computer modelling of microwave heating processes for food preservation. In: Farid M, editor, Mathematical analysis of food processing, CRC Press, Boca Raton (FL), p. 625–657.
   Google Scholar
• Kumi P, Venne JS, Yakovlev VV, Hilario MS, Hoff BW, Rittersdorf IM. 2020a. Computational characterization of a composite ceramic block for a millimetre wave heat exchanger. In: Nicosia G and Romano V, editors, Scientific computing in electrical engineering, Cham: Springer, p. 65–74.
   Google Scholar
• Kumi P, Martin SA, Yakovlev VV, Hilario MS, Hoff BW, Rittersdorf IM. 2020b. Electromagnetic-thermal model of a millimetre-wave heat exchanger based on an AlN:Mo susceptor. COMPEL. 39(2):481–496.
   Web of Science ®Google Scholar
• Landis GA. 1999. Beamed energy propulsion for practical interstellar flight. J. Brit. Interplanet Soc. 52:420–423.
   Google Scholar
• Maranas CD, Floudas CA, Pardalos PM. 1995. New results in the packing of equal circles in a square. Discrete Math. 142(1-3):287–293.
   Web of Science ®Google Scholar
• Mohekar AA, Gaone JM, Tilley BS, Yakovlev VV. 2018. A 2D coupled electromagnetic, thermal and fluid flow model: Application to layered microwave heat exchangers. Proc. IEEE MTT-S Intern. Microwave Symp., Philadelphia (PA), 2018, p. 1389–1392.
   Google Scholar
• Mohekar AA, Tilley BS, Yakovlev VV. 2019a. A 2D model of a triple layer electromagnetic heat exchanger with porous media flow. Proc. IEEE MTT-S Intern. Microwave Symp., Boston (MA), 2019, p. 59–62.
   Google Scholar
• Mohekar AA, Tilley BS, Yakovlev VV. 2019b. Plane wave irradiation of a layered system: Resonance-based control over thermal runaway. Proc. 17th Intern. Conf. on Microwave and High Freq. Heating, Valencia (Spain), 2019, p. 292–300.
   Google Scholar
• Mohekar AA, Tilley BS, Yakovlev VV. 2020. A triple layer electromagnetic heat exchanger with plane Poiseuille flow: control and local onset of thermal runaway. IEEE J Multiscale Multiphys Comput Tech. 5:119–131.
   Google Scholar
• Parkin KL, DiDomenico LD, Culick FE. 2004. The microwave thermal thruster concept. Proc. 2nd Intern. Symp. Beamed Energy Propulsion, 2004, p. 418–429.
   Google Scholar
• Rittersdorf IM, Hoff BW, Richardson AS, Martin SA, Yakovlev VV, Kim PS, Schumer JW. 2021. A one-dimensional model for the millimetre-wave absorption and heating of dielectric materials in power beaming applications. IEEE Trans Plasma Sci. 49(2):695–702.
   Google Scholar
• Rodenbeck CT, Jaffe PI, Strassner BH, Hausgen PE, McSpadden JO, Kazemi H, Shinohara N, Tierney BB, DePuma CB, Self AP. 2021. Microwave and millimetre wave power beaming. IEEE J Microw. 1(1):229–259.
   Google Scholar
• QuickWave. 1998–2021. QWED Sp. z o. o., www.qwed.eu.
   Google Scholar
• Sayigh A. 2012. Comprehensive renewable energy, Amsterdam: Elsevier.
   Google Scholar
• Sienna Technologies. 2011. http://siennatech.com/wp-content/uploads/2011/10/ST-200-AIN-Thermal-Conductivity.pdf.
   Google Scholar
• Yakovlev VV, Allan SM, Fall ML, Shulman HS. 2011. Computational study of thermal runaway in microwave processing of zirconia. In Tao J, editor, Microwave and RF power applications, Cépaduès Éditions, Toulouse, p. 303–306.
   Google Scholar