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Domestic Microwave Oven and Fixed Geometry Waveguide Applicator Processing of Organic Compounds and Biomaterials: A Review

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Domestic Microwave Oven and Fixed Geometry Waveguide Applicator Processing of Organic Compounds and Biomaterials: A Review

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Abstract

advantages and disadvantages. Amongst the rapid homogeneous and heterogeneous processes reported are the treatment of organic compounds, thawing fresh frozen blood plasma, microwaveassisted desolvation, microwave-assisted extraction of bioactive materials, cleaning of dentures, plasma cleaning of polymer surfaces and plasma deposition of carbon-nanostructures. The arc-like plasmoid generated when foodstuff such as grapes are treated in a microwave oven is explored along with a study of microwave irradiated cherry tomatoes.

References

54 Cites in Article
  1. 1. O Joseph (2017). Microwave heating in food processing. BAOJ Nutrition, 13(1), 9.
  2. 2. V (1998). near-field plasma probe. Vacuum, 51(3), 463-468.
  3. 3. Victor Law,Denis Dowling (2018). Converting a Microwave Oven into a Plasma Reactor: A Review. International Journal of Chemical Engineering, 2018, 1-12.
  4. 4. A Davis A history of the oven. The IEEE News Source
  5. 5. P Spencer (1950). Spencer, 8th Earl, (Edward John Spencer) (24 Jan. 1924–29 March 1992). US, 2, 429.
  6. 6. J Osepchuk (2009). The history of the microwave oven: A critical review. Digest IEEE Int. Microwave Symposium, 1397-1400.
  7. 7. J Mims (1973). Unknown Title. Microwave magnetron, 3, 225.
  8. 8. T Koinuma (1974). Unknown Title. US, 3, 590.
  9. 9. Richard Gedye,Frank Smith,Kenneth Westaway (1988). The rapid synthesis of organic compounds in microwave ovens. Canadian Journal of Chemistry, 66(1), 17-26.
  10. 10. Richard Gedye,Werner Rank,Kenneth Westaway (1991). The rapid synthesis of organic compounds in microwave ovens. II. Canadian Journal of Chemistry, 69(4), 706-711.
  11. 11. H Cook (1951). Dielectric Behaviour of Human Blood at Microwave Frequencies. Nature, 168(4267), 247-248.
  12. 12. H Cook (1952). A comparison of the dielectric behaviour of pure water and human blood at microwave frequencies. British Journal of Applied Physics, 3(8), 249-255.
  13. 13. M Wolf,R Gulich,P Lunkenheimer,A Loidl (2011). Broadband dielectric spectroscopy on human blood. Biochimica et Biophysica Acta (BBA) - General Subjects, 1810(8), 727-740.
  14. 14. Ronald Luff,Craig Kessler,William Bell (1985). Microwave Technology for the Rapid Thawing of Frozen Blood Components. American Journal of Clinical Pathology, 83(1), 59-64.
  15. 15. Jay Mead,Barbara Boucock,Richard Russell,Carla Robinson,Gail Harris (1986). Water Environment Microwave Thawing. American Journal of Clinical Pathology, 85(4), 510-513.
  16. 16. W Churchill,Birgitta Schmidt,Jane Lindsey,Mark Greenberg,Susan Boudrow,Carlo Brugnara (1992). Thawing Fresh Frozen Plasma in a Microwave Oven: A Comparison with Thawing in a 37 °C Waterbath. American Journal of Clinical Pathology, 97(2), 227-232.
  17. 17. Juan Mora,Antonio Canals,Vicente Hernandis,Eric Van Veen,Margaretha De Loos-Vollebregt (1983). Evaluation of a microwave desolvation system in inductively coupled plasma mass spectrometry with low acid concentration solutions. Journal of Analytical Atomic Spectrometry, 13(3), 175-181.
  18. 18. Guillermo Grindlay,Salvador Maestre,Juan Mora,Vicente Hernandis,Luis Gras (2005). A microwave assisted desolvation system based on the use of a TM010 cavity for inductively coupled plasma based analytical techniques. Journal of Analytical Atomic Spectrometry, 20(5), 455.
  19. 19. Guillermo Grindlay,Luis Gras,Javier Montiel,Vicente Hernandis,Juan Mora (2010). Design and evaluation of a new fully microwave-assisted liquid sample introduction device for inductively coupled plasma atomic emission spectrometry. Journal of Analytical Atomic Spectrometry, 25(4), 519.
  20. 20. J Pare,M Sigomin,J Lapointe (1991). Investigation of Deep Eutectic Solvent-Based Microwave-Assisted Extraction and Efficient Recovery of Natural Products. US, 5, 784.
  21. 21. A Lagha,S Chemat,P Bartels,F Chemat (1999). Microwave - ultrasound combined reactor suitable for atmospheric sample preparation procedure of biological and chemical products. Analusis, 27(5), 452-457.
  22. 22. Smain Chemat,Hamid Aït-Amar,Ahcène Lagha,D Esveld (2005). Microwave-assisted extraction kinetics of terpenes from caraway seeds. Chemical Engineering and Processing: Process Intensification, 44(12), 1320-1326.
  23. 23. Ya Li,Sha Li,Sheng-Jun Lin,Jiao-Jiao Zhang,Cai-Ning Zhao,Hua-Bin Li (2017). Microwave-Assisted Extraction of Natural Antioxidants from the Exotic Gordonia axillaris Fruit: Optimization and Identification of Phenolic Compounds. Molecules, 22(9), 1481.
  24. 24. Carlos Ledesma-Escobar,Feliciano Priego-Capote,María Luque De Castro (2016). Comparative Study of the Effect of Sample Pretreatment and Extraction on the Determination of Flavonoids from Lemon (Citrus limon). PLOS ONE, 11(1), e0148056.
  25. 25. Nelly Medina-Torres,Teresa Ayora-Talavera,Hugo Espinosa-Andrews,Angeles Sánchez-Contreras,Neith Pacheco (2017). Ultrasound Assisted Extraction for the Recovery of Phenolic Compounds from Vegetable Sources. Agronomy, 7(3), 47.
  26. 26. M Brondani,F Samim,H,Feng (2012). A conventional microwave oven for denture cleaning: a critical review. Gerodontology, 29, 6-15.
  27. 27. L Perreux,A Loupy (2001). A tentative rationalization of microwave effects in organic synthesis according to reaction medium and mechanism considerations. Tetrahedron, 57, 9199-9223.
  28. 28. Newton Sesma,Alessandra Rocha,Dalva Lagana,Bruno Costa,Susana Morimoto (2013). Effectiveness of Denture Cleanser Associated With Microwave Disinfection and Brushing of Complete Dentures: In Vivo Study. Brazilian Dental Journal, 24(4), 357-361.
  29. 29. O Avery,C Macleod,M Mccarty (1944). Studies on the chemical nature of the substance inducing transformation of pneumococcal types. J. Exp. Medicine, 79, 137-158.
  30. 30. Mary Renfrew,Marie Mcloughlin,Alison Mcfadden (2008). Cleaning and sterilisation of infant feeding equipment: a systematic review. Public Health Nutrition, 11(11), 1188-1199.
  31. 31. L Torrison (1999). Release of Nanoplastics from Polypropylene Food Containers into Hot and Cold Water. Cantaurus, 7, 44-46.
  32. 32. Sumeet Dhawan,Shyam Sablani,Juming Tang,Gustavo Barbosa‐cànovas,Jeffrey Ullman,Kanishka Bhunia (2014). Silicon Migration from High‐barrier Coated Multilayer Polymeric Films to Selected Food Simulants after Microwave Processing Treatments. Packaging Technology and Science, 27(8), 625-638.
  33. 33. Zhongwei Tang,Galina Mikhaylenko,Fang Liu,Jae-Hyung Mah,Ram Pandit,Frank Younce,Juming Tang (2008). Microwave sterilization of sliced beef in gravy in 7-oz trays. Journal of Food Engineering, 89(4), 375-383.
  34. 34. A Ribner (1989). Microwave plasma etching machine and method of etching. US, 4, 431.
  35. 35. Brent Ginn,Oliver Steinbock (2003). Polymer Surface Modification Using Microwave-Oven-Generated Plasma. Langmuir, 19(19), 8117-8118.
  36. 36. Hisham Abourayana,Denis Dowling (2015). Plasma Processing for Tailoring the Surface Properties of Polymers. Surface Energy, 123-152.
  37. 37. Tallaire Plasma cleaning in modified microwave oven at LSPM. Plasma cleaning in modified microwave oven at LSPM
  38. 38. P Khongkrapan,N Tippayawong,T Kiatsiriroat (2013). Thermochemical conversion of waste papers to fuel gas in a microwave plasma reactor. J. Clean Energy Technologies, 1(2), 80-83.
  39. 39. Parin Khongkrapan,Nakorn Tippayawong,Tanongkiat Kiatsiriroat (2013). Thermochemical Conversion of Waste Papers to Fuel Gas in a Microwave Plasma Reactor. Journal of Clean Energy Technologies, 4(6), 80-83.
  40. 40. Shinfuku Nomura,Hiromichi Toyota,Shinobu Mukasa,Hiroshi Yamashita,Tsunehiro Maehara,Ayato Kawashima (2009). Production of hydrogen in a conventional microwave oven. Journal of Applied Physics, 106(7), 73306.
  41. 41. Shinfuku Nomura,Hiromichi Toyota,Shinobu Mukasa,Hiroshi Yamashita,Tsunehiro Maehara,Ayato Kawashima (2009). Production of hydrogen in a conventional microwave oven. Journal of Applied Physics, 106(7)
  42. 42. Hiromichi Toyota,S Nomura,S Mukasa (2013). A Practical Electrode for Microwave Plasma Processes. International Journal of Materials Science and Applications, 2(3), 83.
  43. 43. R Singh,A Jarvis (2010). Microwave plasmaenhanced chemical vapour deposition growth of carbon nanostructures. S. Afr. J. Sci, 106(5-6), 4.
  44. 44. E Iwamura,Kinoshita (2003). Oinon-like nanostructures film and its production. US, 6(2), 492.
  45. 45. M Asnawi,S Azhari,M Hamidon,I Ismail,I Helina (2018). Synthesis of carbon nonmaterial's from rice husk via microwave oven. J. Nan materials, 4.
  46. 46. H Stanley (2009). SUMMER SCHOOL AT CORNELL UNIVERSITY. School Science and Mathematics, 12(6), 546-546.
  47. 47. (2016). LAS VEGAS SANDS CORP., a Nevada corporation, Plaintiff, v. UKNOWN REGISTRANTS OF www.wn0000.com, www.wn1111.com, www.wn2222.com, www.wn3333.com, www.wn4444.com, www.wn5555.com, www.wn6666.com, www.wn7777.com, www.wn8888.com, www.wn9999.com, www.112211.com, www.4456888.com, www.4489888.com, www.001148.com, and www.2289888.com, Defendants. Gaming Law Review and Economics, 20(10), 859-868.
  48. 48. Aaron Slepkov (2019). Grape expectations: how balls of water can mimic metallic objects in the microwave oven. TheScienceBreaker, 05(03)
  49. 49. Jing Peng,Juming Tang,Yang Jiao,Stewart Bohnet,Diane Barrett (2003). Dielectric properties of tomatoes assisting in the development of microwave pasteurization and sterilization processes. LWT - Food Science and Technology, 54(2), 367-376.
  50. 50. Hosain Darvishi,A Hosainpou,F Nargesi (2012). Ohmic Heating Behaviour and Electrical Conductivity of Tomato Paste. Journal of Nutrition & Food Sciences, 02(09), 1000167-1002012.
  51. 51. S Srivastav,S Roy (2014). The Electrical Conductivity of Foods. Ohmic Heating in Food Processing, 7, 59-74.
  52. 52. T Tulasidas,G Raghavan,F Voort,R Girard (1995). Dielectric Properties of Grapes and Sugar Solutions at 2.45 GHz. Journal of Microwave Power and Electromagnetic Energy, 30(2), 117-123.
  53. 53. G Bingol,Z Pan,J Roberts,Y Devres,M Balaban (2008). Mathematical modeling of microwave-assisted convective heating and drying of grapes. Int J Agric & Biol Eng, 1(2), 46-54.
  54. 54. D Kumar,S Kumar (2007). Plasma assisted joining. US, 7, 843-B845.

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

How to Cite This Article

Victor J. Law, Denis P. Dowling. 2018. "Domestic Microwave Oven and Fixed Geometry Waveguide Applicator Processing of Organic Compounds and Biomaterials: A Review". Global Journal of Research in Engineering GJRE-A Volume 18 (GJRE Volume 18 Issue A2).

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Journal Specifications

Crossref Journal DOI 10.17406/gjre

Print ISSN 0975-5861

e-ISSN 2249-4596

Keywords
Classification
GJRE-A Classification FOR Code: 091399p
Version of record
v1.2

Issue date
October 20, 2018

Language
English
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Domestic Microwave Oven and Fixed Geometry Waveguide Applicator Processing of Organic Compounds and Biomaterials: A Review

Victor Law
Victor Law University College Dublin
Denis Dowling
Denis Dowling