Contents	6
	1 Chemical and Physical Effects of Acoustic Bubbles	8
	1.1 Characteristics of Acoustic Bubbles	9
	1.2 Calorimetry for Ultrasound Power Measurement	11
	1.3 Chemical Effects of Acoustic Cavitation in Water	13
	1.4 Relationship Between Ultrasound Power and Sonochemical Reaction	16
	1.5 Relationship Between Ultrasound Frequency and Sonochemical Reaction	18
	1.6 Reactions of Organic Additives with OH Radicals in Aqueous Solution	19
	1.7 Chemical Effects of Acoustic Cavitation in Organic Solvents	20
	1.8 Physical Effects of Acoustic Cavitation	21
	References	22
	2 Synthesis of Metal Nanomaterials with Chemical and Physical Effects of Ultrasound and Acoustic Cavitation	25
	2.1 Pyrolysis Technique Using High-Temperature Bubbles	25
	2.2 Reduction Technique Using Sonochemically Formed Reductants	28
	2.3 Ultrasound-Assisted Technique	34
	2.4 Sonomechanical-Assisted Metal Displacement Reduction Technique	36
	2.5 Sonoelectrochemical Technique	37
	2.6 Ultrasound Spray Pyrolysis Technique	39
	References	41
	3 Synthesis of Micro-nanoparticles Using Ultrasound-Responsive Biomolecules	44
	3.1 Introduction	44
	3.2 Ultrasonic Synthesis and Assembly of Protein-Shelled Microbubbles and Microcapsules	45
	3.2.1 The Echogenic Properties of Lysozyme Microbubbles	47
	3.3 Synthesis of Nanoparticles Using Ultrasound-Responsive Phenolic Molecules	51
	References	65