Abstract
Ultrasonic technology is growing rapidly with a promise of having tremendous potential. A range of diverse applications using ultrasonic sensors have been witnessed recently in several areas ranging from healthcare, food sector, non-destructive testing, level measurement, etc. In industry, it is used for processes including cutting, forming, cleaning, and welding of metals and plastics. New hybrid forms of ultrasonics are also finding latest interest and attraction owing to the improved resolution and penetration depth for medical imaging. The present chapter explores the basics of ultrasonics along with a wide range of applications. Improvements in ultrasonic sensors have now resulted in low-cost, user-friendly, and compact devices. Being a radiation-free alternative, ultrasound has become ubiquitous attracting a wide range of interest resulting in the growing customer market. In retrospect, it should not have been so astonishing that ultrasound is soon to be covering the day-to-day field of importance areas widely.
References
Aindow JD, Chivers RC (1982) A narrow-band sing-around ultrasonic velocity measurement system. J Phys E Sci Instrum 15:1027
Bakkali F, Moudden A, Faiz B, Amghar A, Maze G, Montero de Espinosa F, Akhnak M (2001) “Ultrasonic measurement of milk coagulation time” Meas. Sci Technol 12:2154
Benedetto G, Gavioso RM, Guiliano Albo PA, Lago S, Madonna Ripa D, Spagnolo R (2005) Microwave-ultrasonic cell for sound speed measurements in liquids. Int J Thermophys 26:1651
Bhatnagar D, Joshi D, Kumar A (2010) Direct acoustic impedance measurements of dimethyl sulphoxide with benzene, carbontetrachloride and methanol liquid mixtures. J Pure Appl Phys 48:31
Bilaniuk N, Wong SK (1993) Speed of sound in pure water as a function of temperature. J Acoust Soc Am 93:1608
Birnbaum G, White GS (1984) Laser Techniques in NDE. In: Sharpe RS (ed) Research techniques in nondestructive testing. Academic, New York, p 259
Carstensen EL (1954) Measurement of dispersion of velocity of sound in liquids. J Acoust Soc Am 26:858
Cedrone NP, Curran DR (1954) Electronic pulse methods for measuring the velocity of sound in liquids and solids. J Acoust Soc Am 26:963
Cerf R, Degermann H, Bader M (1970) Measure precise depetites diff’erences de vitesse de propagation des ultrasonsd ans le liquides par comparaison de phase, a l’aide d’unecellule tubulaire. Acust 23:48
Crawford FS (1968) Waves – Berkeley physics course, vol 3. McGraw-Hill, New York
Dev SB, Sarkar S, Pethrick RA (1973) Model calculations for the swept frequency acoustic resonator. J Phys E Sci Instrum 61:39
Edwards C, Taylor GS, Palmer SB (1990) The CO2 laser – a new ultrasonic source. J Nondestr Test Eval 5:135
Eggers F (1967/68) Eine Resonatormethode zur Bestimmung von Schall-Geschwindigkeit und D¨ ampfung an geringen Fl¨ ussigkeitsmengen. Acustica 19:323
Eggers F (1992) Ultrasonic velocity and attenuation measurements in liquids with resonators, extending the MHz frequency range. Acustica 76:231
Eggers F (1994) Analysis of phase slope or group delay time in ultrasonic resonators and its application for liquid absorption and velocity measurements. Acustica 8:397
Eggers F (1997) Model calculations for ultrasonic plate-liquid-plate resonators: peak frequency shift by liquid density and velocity variations. Meas Sci Technol 8:643
Elias M, Garcia-Moliner F (1968) Wave packet propagation and frequency dependent internal friction. In: Mason WP, Thurston R (eds) Physical acoustics, vol 5. Academic, New York, p 163
Ernst S, Marczak W, Manikowski R, Zorebski E, Zorebski M (1992) A sing-around apparatus for group velocity measurements in liquids. Testing by standard liquids and discussion of errors. Acoust Lett 15:123
Forgacs RL (1960) Improvements in the sing-around technique for ultrasonic velocity measurements. J AcoustSoc Am 32:1697
Goodenough TIJ, Rajendram VS, Meyer S, Prete D (2005) Development of a multi frequency pulse diagnostic ultrasound. Ultrasonics 43:165
Greenspan M, Tschiegg CE (1957) Sing-around ultrasonic velocimeter for liquids. Rev Sci Instrum 28:897
Høgseth E, Hedwig G, Høiland H (2000) Rubidium clocksound velocity meter. Rev Sci Instrum 71:4679
Horváth-Szabó G, Høiland H, Høgseth E (1994) An automated apparatus for ultrasound velocity measurements improving the pulse-echo-overlap method to a precision better than 0.5 ppm in liquids. Rev Sci Instrum 65:1644
Hosoda M, Takagi K, Ogawa H, Nomura H, Sakai K (2005) Rapid and precise measurement system for ultrasonic velocity by pulse correlation method designed for chemical analysis. Japan J Appl Phys 44:3268
Hubbard JC (1931) The acoustic resonator interferometer: I. The acoustic system and its equivalent electric network. Phys Rev 38:1011
Hutchins DA (1988) Ultrasonic generation by pulsed lasers. In: Mason WP, Thurston RN (eds) Physical acoustics. Academic Press, New York, pp 18–21
Joshi D, Bhatnagar D, Kumar A, Gupta R (2009) Direct measurement of acoustic impedance in liquids by a new pulse echotechnique. MAPAN J Metrol Soc India 24:215
Joshi D, Kumar A, Gupta R, Yadav S (2013) Sensitivity enhancement of concurrent technique of acoustic impedance measurement. MAPAN J Metrol Soc India 28:79
Joshi D, Gupta R, Kumar A, Kumar Y, Yadav S (2014) A precision ultrasonic phase velocity measurement technique for liquids. MAPAN J Metrol Soc India 29:9
Kaatze U, Wehrmann B, Pottel R (1987) Acoustical absorption spectroscopy of liquids between 0.15 and 300 MHz: high resolution ultrasonic resonator method. J Phys E Sci Instrum 20:1025
Kaatze U, Lautscham K, Brai M (1988) Acoustical absorption spectroscopy of liquids between 0.15 and 3000 MHz: II. Ultrasonic pulse transmission method. J Phys E Sci Instrum 21:98
Kaatze U, Knel V, Menzel K, Schwerdtfeger S (1993) Ultrasonic spectroscopy of liquids. Extending the frequency range of the variable sample length pulse technique. Meas Sci Technol 41:257
Kline RA (1984) Measurement of attenuation and dispersion using an ultrasonic spectroscopy technique. J Acoust Soc Am 76:167
Kumar A, Kumar B, Kumar Y (1997) On the acoustic impedance of salol. Act Acoust 83:82
Letang C, Piom M, Verdier C, Lefebvre L (2001) Characterization of wheat-flour-water doughs: a new method using ultrasound. Ultrasonics 39:133
McClements DJ, Fairly P (1991) Ultrasonic pulse echo reflectometer. Ultrasonics 29:58
McSkimin HJ (1961) Pulse superposition method for measuring ultrasonic wave velocities in solids. J Acoust Soc Am 33:12
Meier K, Kabelac S (2006) Speed of sound increment for fluids with pressures up to 100 MPa. Rev Sci Instrum 77:903
Mitaku S, Sakanishi A (1997) Differential ultrasonic velocimeter for measurements of dilute suspensions. RevSci Instrum 48:647
Myers A, Mackinnon L, Hoare FE (1959) Modifications to standard pulse techniques for ultrasonic velocity measurements. J Acoust Soc Am 31:16
Nakajima H, Arakawa K (1993) VHF ultrasonic resonator for soft materials. Japan J Appl Phys 32:2213
Nolting B (1999) “Protein folding kinetics.” Biophysical methods. Springer, Berlin
Papadakis EP (1967) Ultrasonic phase velocity by the pulse-echo-overlap method. Incorporating diffraction phase corrections. J Acoust Soc Am 42:1045
Papadakis EP (1973) The measurement of small changes inultrasonic velocity and attenuation. Crit Rev Solid State Sci 3:373
Papadakis EP (1976) New, compact instrument for pulse-echo-overlap measurements of ultrasonic wave transit times. Rev Sci Instrum 47:806
Pearson DS, Holtermann G, Ellison P, Cremo C, Geeves A (2002) A novel pressure-jump apparatus for the microvolume analysis of protein-ligand and protein-protein interactions: its application to nucleotide binding to skeletal-muscle and smooth-muscle myosinsubfragment-1. Biochem J 366:643
Pethrick RA (1972) The swept frequency resonant interferometer: measurement of acoustic dispersion parameters in the low megahertz frequency range. J Phys E Sci Instrum 5:571
Rogez D, Bader M (1984) Ultrasonic velocity dispersion in liquids between 3.3 and 330 MHz using high resolution phase measurement technique. J Acoust Soc Am 76:167
Sachse W, Pao Y-H (1978) On the determination of phase and group velocities of disperse waves in solids. J Appl Phys 49:4320
Sarvazyan AP (1982) Development of methods of precise ultrasonic measurements in small volumes of liquids. Ultrasonics 20:151
Srinivasan MS (1998) Physics for engineers, vol 2. New Age International Publishers, New Delhi, p 37
Taifi N, Bakkali F, Faiz B, Moudden A, Maze G, Decultot D (2006) Characterization of the synthesis and the firmness of the milk gel using an ultrasonic technique. Meas Sci Technol 17:281
Tardajos G, Gonzales Gaitano G, Montero de Espinosa F (1994) Accurate, sensitive and fully automatic method to measure sound velocity and attenuation. Rev Sci Instrum 65:2933
Tong J, Povey MJW (2002) Pulse echo comparison method with FSUPER to measure velocity dispersion in n-tetradecane in water emulsions. Ultrasonics 40:37
Van Venrooij GE (1971) Measurement of ultrasound velocity in human tissue. Ultrasonics 9:240
White RM (1963) Generation of elastic waves by transient surface heating. J Appl Phys 34:3559
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Joshi, D., Mehta, D.S. (2023). Recent Trends and Diversity in Ultrasonics. In: Aswal, D.K., Yadav, S., Takatsuji, T., Rachakonda, P., Kumar, H. (eds) Handbook of Metrology and Applications. Springer, Singapore. https://doi.org/10.1007/978-981-99-2074-7_43
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